Deck 6: Integration

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Question
Write sigma notation of 4 - 9 + 16 - 25 +... + . <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>

A) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>
B) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>
C) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>
D) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>
E) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px> <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <div style=padding-top: 35px>
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Question
Evaluate the sum <strong>Evaluate the sum   .</strong> A) 420 B) 70 C) 67 D) 417 E) 356 <div style=padding-top: 35px> .

A) 420
B) 70
C) 67
D) 417
E) 356
Question
Evaluate <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px> .

A) 1 + <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px>
B) <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px>
C) - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px>
D) 1 - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px>
E) - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   <div style=padding-top: 35px>
Question
Evaluate the <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px> .

A) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px> + <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px>
B) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px> - <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px>
C) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px>
D) 2 - <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px>
E) 2 + <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   <div style=padding-top: 35px>
Question
Find and evaluate the sum <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px> .

A) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px>
B) - <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px>
C) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px>
D) - <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px>
E) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   <div style=padding-top: 35px>
Question
Evaluate <strong>Evaluate   .</strong> A) -1 B) 0 C) 51 D) 1 E) 101 <div style=padding-top: 35px> .

A) -1
B) 0
C) 51
D) 1
E) 101
Question
Express the sum <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> +..... + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> using sigma notation.

A) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Simplify the expression <strong>Simplify the expression   .</strong> A) ln((2n)!) B)   C) (2 ln n)! D) 2 ln(n!) E) (ln(n))! <div style=padding-top: 35px> .

A) ln((2n)!)
B) <strong>Simplify the expression   .</strong> A) ln((2n)!) B)   C) (2 ln n)! D) 2 ln(n!) E) (ln(n))! <div style=padding-top: 35px>
C) (2 ln n)!
D) 2 ln(n!)
E) (ln(n))!
Question
Express the sum in the series <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> .

A) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 7k
B) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 5k
C) 3 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 7k
D) 3 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 5k
E) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> - 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k <div style=padding-top: 35px> + 7k
Question
Evaluate the sum <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px> Hint: <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px> = <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px> - <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px> .

A) 1
B) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Evaluate the sum <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> .

A) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Express the sum <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> as a polynomial function of n.

A) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> n
B) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> n
C) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + 4n
D) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> + 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> - n
E) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <div style=padding-top: 35px> n
Question
Find an approximation for the area under the curve y = 1 - <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?

A) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px>
B) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px>
C) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px>
D) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px>
E) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px> < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   <div style=padding-top: 35px>
Question
Given that the area under the curve y = <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   <div style=padding-top: 35px> and above the x-axis from x = 0 to x = a > 0 is <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   <div style=padding-top: 35px> square units, find the area under the same curve from x = -2 to x = 3.

A) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   <div style=padding-top: 35px> square units
B) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   <div style=padding-top: 35px> square units
C) 9 square units
D) 6 square units
E) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   <div style=padding-top: 35px>
Question
Construct and simplify a sum approximating the area above the x-axis and under the curve y = <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.

A) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
B) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
C) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 6 square units
D) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 6 square units
E) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
Question
Construct and simplify a sum approximating the area above the x-axis and under the curvey = <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.

A) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
B) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
C) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 6 square units
D) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 6 square units
E) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units <div style=padding-top: 35px> , area = 9 square units
Question
Write the area under the curve y = cos x and above the interval [0, π\pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.

A) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>   <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>
B) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>   <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>
C) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>   <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>
D) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>   <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>
E) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>   <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =     <div style=padding-top: 35px>
Question
Given that <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> = <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> , find the area under y = <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.

A) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> square units
B) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> square units
C) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> square units
D) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> square units
E) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units <div style=padding-top: 35px> square units
Question
The limit  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi  <div style=padding-top: 35px>   <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi  <div style=padding-top: 35px>  represents the area of a certain region in the xy-plane. Describe the region.

A) region under y = cos x, above y = 0, between x = 0 and x =  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi  <div style=padding-top: 35px>
B) region under y = sin x, above y = 0, between x = 0 and x =  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi  <div style=padding-top: 35px>
C) region under y = cos x, above y = 0, between x = 0 and x = π\pi
D) region under y = sin x, above y = 0, between x = 0 and x = π\pi
E) region under y = cos x, above y = 0, between x=  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi  <div style=padding-top: 35px>  and x = π\pi
Question
By interpreting it as the area of a region in the xy-plane, evaluate the limit  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1) <div style=padding-top: 35px>  .  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1) <div style=padding-top: 35px>   <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1) <div style=padding-top: 35px>

A) 2 + 2 π\pi (the area of the trapezoidal region under y = 1 + π\pi x, above y = 0 from x = 0 to x = 2)
B) 1 + π\pi (the area of the trapezoidal region under y = 1 + 2 π\pi x, above y = 0 from x = 0 to x = 1)
C) 2 + 4 π\pi (the area of the trapezoidal region under y = 1 + 2 π\pi x, above y = 0 from x = 0 to x = 2)
D) 4 + 2 π\pi (the area of the trapezoidal region under y = 2 + π\pi x, above y = 0 from x = 0 to x = 2)
E) 2 +  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1) <div style=padding-top: 35px>  (the area of the trapezoidal region under y = 2 + π\pi x, above y = 0 from x = 0 to x = 1)
Question
By interpreting it as the area of a region in the xy-plane, evaluate the limit  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4) <div style=padding-top: 35px>  .  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4) <div style=padding-top: 35px>   <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4) <div style=padding-top: 35px>

A) π\pi (the area of a quarter of a circular disk of radius 2)
B) 2 π\pi (the area of half of a circular disk of radius 2)
C) 4 π\pi (the area of a circular disk of radius 2)
D) 8 π\pi (the area of half of a circular disk of radius 4)
E) 16 π\pi (the area of a circular disk of radius 4)
Question
Let P denote the partition of the interval [1, 3] into 4 subintervals of equal length <strong>Let P denote the partition of the interval [1, 3] into 4 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f,P) and L(f,P) for the function f(x) = 4x<sup>2</sup>.</strong> A) U(f,P) = 40, L(f,P) = 30 B) U(f,P) = 41, L(f,P) = 29 C) U(f,P) = 42, L(f,P) = 28 D) U(f,P) = 43, L(f,P) = 27 E) U(f,P) = 44, L(f,P) = 26 <div style=padding-top: 35px> x = 1/2.Evaluate the upper and lower Riemann sums U(f,P) and L(f,P) for the function f(x) = 4x2.

A) U(f,P) = 40, L(f,P) = 30
B) U(f,P) = 41, L(f,P) = 29
C) U(f,P) = 42, L(f,P) = 28
D) U(f,P) = 43, L(f,P) = 27
E) U(f,P) = 44, L(f,P) = 26
Question
Let P denote the partition of the interval [1, 2] into 8 subintervals of equal length <strong>Let P denote the partition of the interval [1, 2] into 8 subintervals of equal length  x = 1/8.Evaluate the upper and lower Riemann sums U(f P) and L(f,P) for the function f(x) = 1/x.Round your answers to 4 decimal places.</strong> A) U(f,P) = 0.7110, L(f,P) = 0.6781 B) U(f,P) = 0.7254, L(f,P) = 0.6629 C) U(f,P) = 0.7302, L(f,P) = 0.6571 D) U(f,P) = 0.7378, L(f,P) = 0.6510 E) U(f,P) = 0.7219, L(f,P) = 0.6683 <div style=padding-top: 35px> x = 1/8.Evaluate the upper and lower Riemann sums U(f P) and L(f,P) for the function f(x) = 1/x.Round your answers to 4 decimal places.

A) U(f,P) = 0.7110, L(f,P) = 0.6781
B) U(f,P) = 0.7254, L(f,P) = 0.6629
C) U(f,P) = 0.7302, L(f,P) = 0.6571
D) U(f,P) = 0.7378, L(f,P) = 0.6510
E) U(f,P) = 0.7219, L(f,P) = 0.6683
Question
Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length <strong>Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) =   .Round your answers to 4 decimal places.</strong> A) U(f,P) = 4.9115, L(f,P) = 4.4115 B) U(f,P) = 4.9135, L(f,P) = 4.4109 C) U(f,P) = 4.9180, L(f,P) = 4.4057 D) U(f,P) = 4.9002, L(f,P) = 4.4250 E) U(f,P) = 4.9183, L(f,P) = 4.4093 <div style=padding-top: 35px> x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) = <strong>Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) =   .Round your answers to 4 decimal places.</strong> A) U(f,P) = 4.9115, L(f,P) = 4.4115 B) U(f,P) = 4.9135, L(f,P) = 4.4109 C) U(f,P) = 4.9180, L(f,P) = 4.4057 D) U(f,P) = 4.9002, L(f,P) = 4.4250 E) U(f,P) = 4.9183, L(f,P) = 4.4093 <div style=padding-top: 35px> .Round your answers to 4 decimal places.

A) U(f,P) = 4.9115, L(f,P) = 4.4115
B) U(f,P) = 4.9135, L(f,P) = 4.4109
C) U(f,P) = 4.9180, L(f,P) = 4.4057
D) U(f,P) = 4.9002, L(f,P) = 4.4250
E) U(f,P) = 4.9183, L(f,P) = 4.4093
Question
Calculate the upper Riemann sum for f(x) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.

A) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 3, area = 12 square units
B) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 3, area = 12 square units
C) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 3, area = 12 square units
D) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 3, area = 12 square units
E) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units <div style=padding-top: 35px> + 3, area = 12 square units
Question
Calculate the lower Riemann sum for f(x) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> n <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> = 1 (which can be verified by using l'Hopital's Rule), find the area under y = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> and above the x-axis between x = 0 and x = 1.

A) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> , area = e square units
B) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> square units
C) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> , area = e - 1 square units
D) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> square units
E) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units <div style=padding-top: 35px> square units
Question
Express <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.

A) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px>
B) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px>
C) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px>
D) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px>
E) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px> <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <div style=padding-top: 35px>
Question
Express <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.

A) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> .
B) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> .
C) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> .
D) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> .
E) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <div style=padding-top: 35px> .
Question
Write the following limit as a definite integral: . <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Write the following limit as a definite integral: <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Use the limit definition of definite integral to evaluate <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1 <div style=padding-top: 35px> dx.

A) 0
B) - <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1 <div style=padding-top: 35px>
C) <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1 <div style=padding-top: 35px>
D) 1
E) -1
Question
Use the limit definition of the definite integral to evaluate <strong>Use the limit definition of the definite integral to evaluate   dx.</strong> A) 10 B) 18 C) 6 D) 30 E) 9 <div style=padding-top: 35px> dx.

A) 10
B) 18
C) 6
D) 30
E) 9
Question
Write the following limit as a definite integral: <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px>

A) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> dx
B) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> dx
C) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> dx
D) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> dx
E) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <div style=padding-top: 35px> dx
Question
Given that <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2 <div style=padding-top: 35px> and <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2 <div style=padding-top: 35px> = -1, find <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2 <div style=padding-top: 35px>

A) -3
B) -1
C) 3
D) 1
E) -2
Question
Suppose that <strong>Suppose that  </strong> A) -5 B) -3 C) -7 D) -1 E) 7 <div style=padding-top: 35px>

A) -5
B) -3
C) -7
D) -1
E) 7
Question
Evaluate <strong>Evaluate   dx.</strong> A) 42 B) 0 C) 21 D) 51 E) 16 <div style=padding-top: 35px> dx.

A) 42
B) 0
C) 21
D) 51
E) 16
Question
If f and g are integrable functions on the interval [a, b], then If f and g are integrable functions on the interval [a, b], then   =   .   dx.<div style=padding-top: 35px> = If f and g are integrable functions on the interval [a, b], then   =   .   dx.<div style=padding-top: 35px> . If f and g are integrable functions on the interval [a, b], then   =   .   dx.<div style=padding-top: 35px> dx.
Question
 <div style=padding-top: 35px>
Question
If f(x) is an even function and g(x) is an odd function ,both of which are integrable over the interval [-a, a], then If f(x) is an even function and g(x) is an odd function ,both of which are integrable over the interval [-a, a], then  <div style=padding-top: 35px>
Question
Evaluate <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   <div style=padding-top: 35px> (2 - <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   <div style=padding-top: 35px> ) dx by interpreting the integral as representing an area.

A) <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   <div style=padding-top: 35px>
B) 4
C) 2
D) <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   <div style=padding-top: 35px>
E) - <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   <div style=padding-top: 35px>
Question
Evaluate  <strong>Evaluate     dx by interpreting the integral as representing an area.</strong> A) 8  \pi  B) 4  \pi  C) 16  \pi  D) 8 E) 16 <div style=padding-top: 35px>   <strong>Evaluate     dx by interpreting the integral as representing an area.</strong> A) 8  \pi  B) 4  \pi  C) 16  \pi  D) 8 E) 16 <div style=padding-top: 35px>  dx by interpreting the integral as representing an area.

A) 8 π\pi
B) 4 π\pi
C) 16 π\pi
D) 8
E) 16
Question
Given that  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)   <div style=padding-top: 35px>  dx =  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)   <div style=padding-top: 35px>  , evaluate  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)   <div style=padding-top: 35px>  dx.

A) π\pi /4
B) π\pi /2
C) π\pi
D) 1/2
E)  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)   <div style=padding-top: 35px>
Question
Given the piecewise continuous function f(x) = Given the piecewise continuous function f(x) =   evaluate   by using the properties of definite integrals and interpreting integrals as areas.<div style=padding-top: 35px> evaluate Given the piecewise continuous function f(x) =   evaluate   by using the properties of definite integrals and interpreting integrals as areas.<div style=padding-top: 35px> by using the properties of definite integrals and interpreting integrals as areas.
Question
If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then   =2   .<div style=padding-top: 35px> =2 If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then   =2   .<div style=padding-top: 35px> .
Question
Find the average value of the function f(x) = sin (x/2) + π\pi on [- π\pi , π\pi ].

A) π\pi
B)  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2   <div style=padding-top: 35px>
C) 2 π\pi
D)  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2   <div style=padding-top: 35px>
E) 2  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2   <div style=padding-top: 35px>
Question
The velocity of a particle moving along a straight line at time t is given by v(t) = t2 - 6t + 8 m/s.Find the distance travelled by the particle from t = 0 to t = 3.

A) <strong>The velocity of a particle moving along a straight line at time t is given by v(t) = t<sup>2</sup> - 6t + 8 m/s.Find the distance travelled by the particle from t = 0 to t = 3.</strong> A)   m B) 21 m C) 6 m D) 4 m E) 33 m <div style=padding-top: 35px> m
B) 21 m
C) 6 m
D) 4 m
E) 33 m
Question
What values of a and b, satisfying a < b, maximize the value of  <strong>What values of a and b, satisfying a < b, maximize the value of  </strong> A) a = 0, b = 1 B) a = -1, b = 1 C) a = 0, b = 2 D) a = - \infty , b =  \infty  E) a = -1, b = 0 <div style=padding-top: 35px>

A) a = 0, b = 1
B) a = -1, b = 1
C) a = 0, b = 2
D) a = - \infty , b = \infty
E) a = -1, b = 0
Question
What values of a and b, satisfying a < b, maximize the value of  <strong>What values of a and b, satisfying a < b, maximize the value of  </strong> A) a = -2, b = 4 B) a = 0, b = 4 C) a = - \infty , b =  \infty  D) a = -2, b = 0 E) a = 1, b = 3 <div style=padding-top: 35px>

A) a = -2, b = 4
B) a = 0, b = 4
C) a = - \infty , b = \infty
D) a = -2, b = 0
E) a = 1, b = 3
Question
Evaluate the definite integral <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12 <div style=padding-top: 35px>

A) - <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12 <div style=padding-top: 35px>
B) <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12 <div style=padding-top: 35px>
C) <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12 <div style=padding-top: 35px>
D) - <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12 <div style=padding-top: 35px>
E) -12
Question
Compute the definite integral <strong>Compute the definite integral   - 2x + 1)dx.</strong> A) 14 B) 22 C) 21 D) 24 E) 20 <div style=padding-top: 35px> - 2x + 1)dx.

A) 14
B) 22
C) 21
D) 24
E) 20
Question
Compute the integral <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> - x)dx.

A) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px>
B) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> + <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px>
C) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px>
D) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> + <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px>
E) 2 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px> - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   <div style=padding-top: 35px>
Question
Compute the integral <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>

A) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>
B) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>
C) - <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>
D) - <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>
E) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)   <div style=padding-top: 35px>
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   <div style=padding-top: 35px> dx.

A) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   <div style=padding-top: 35px>
B) 1
C) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   <div style=padding-top: 35px>
Question
Find <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> dx.

A) <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Find   dx.</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Evaluate the integral <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>

A) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>
B) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>
C) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>
D) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>
E) - <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -   <div style=padding-top: 35px>
Question
Find the average value of the function f(x) = <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> + 3 <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> - 2 <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> - 3x + 1 on the interval [0, 2].

A) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Find the average value of the function f(x) = sin x on [0, 3 π\pi /2].

A)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Evaluate the definite integral <strong>Evaluate the definite integral   dx.</strong> A) 11.1 B) 9.9 C) 10.1 D) 15 E) -10.1 <div style=padding-top: 35px> dx.

A) 11.1
B) 9.9
C) 10.1
D) 15
E) -10.1
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) 4 B) 6 C) 7 D) 5 E) 3 <div style=padding-top: 35px> dx.

A) 4
B) 6
C) 7
D) 5
E) 3
Question
  dx = 4<div style=padding-top: 35px> dx = 4
Question
Find the average value of the function f(x) =  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>  3x, over the interval [- π\pi /12, π\pi /12].

A)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Let f(t) = Let f(t) =   Evaluate   dt.<div style=padding-top: 35px> Evaluate Let f(t) =   Evaluate   dt.<div style=padding-top: 35px> dt.
Question
Evaluate the definite integral <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   <div style=padding-top: 35px> dx.

A) - <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   <div style=padding-top: 35px>
B) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   <div style=padding-top: 35px>
C) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   <div style=padding-top: 35px>
D) -33
E) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   <div style=padding-top: 35px>
Question
Find the derivative of F(x) = <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x <div style=padding-top: 35px>

A) 2 ln x
B) 0
C) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x <div style=padding-top: 35px> ln(u)
D) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x <div style=padding-top: 35px> ln x
E) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x <div style=padding-top: 35px> ln x
Question
Find the derivative of F(x) = <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> dt.

A) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> )
B) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> sin ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> )
C) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> )
D) <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> )
E) <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) <div style=padding-top: 35px> )
Question
Given that the relation 3 <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) <div style=padding-top: 35px> + <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) <div style=padding-top: 35px> dt = 3 defines y implicitly as a differentiable function of x, find <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) <div style=padding-top: 35px> .

A) <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) <div style=padding-top: 35px>
B) <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) <div style=padding-top: 35px>
C) 6x + cos (t) - t sin (t)
D) 6x +cos(y) - ysin (y)
E) 6x + ycos (y)
Question
Evaluate <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px> <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px>

A) - <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px>
B) - <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px>
C) <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px>
D) 1
E) <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <div style=padding-top: 35px>
Question
Find the point on the graph of the function f(x) = <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   <div style=padding-top: 35px> dt where the graph has a horizontal tangent line.

A) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   <div style=padding-top: 35px>
B) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   <div style=padding-top: 35px>
C) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   <div style=padding-top: 35px>
D) (1, 0)
E) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   <div style=padding-top: 35px>
Question
: <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px> <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px> is equal to

A) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px>
B) <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px> - <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px>
C) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px>
D) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px>
E) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <div style=padding-top: 35px>
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
E) - <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
Question
Find the inflection point of the function f(x) = <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   <div style=padding-top: 35px> dt, where x > 0.

A) (1, 0)
B) (e, <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   <div style=padding-top: 35px> )
C) (e, 1)
D) (e, <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   <div style=padding-top: 35px> )
E) <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   <div style=padding-top: 35px>
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> dx.

A) ln(3 <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> ) + C
B) ln <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> + C
C) 3ln <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> + C
D) <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> + C
E) <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C <div style=padding-top: 35px> + C
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> + C
C) - <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> + C
E) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <div style=padding-top: 35px> + C
Question
Evaluate the integral <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>

A) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px> - <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>
B) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px> + <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>
C) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px> - <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>
D) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px> + <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>
E) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   <div style=padding-top: 35px>
Question
Evaluate the integral dx. <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px>

A) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> + C
B) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> + C
C) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> + C
D) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> + C
E) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <div style=padding-top: 35px> + C
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> dx.

A) ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> + 4x + 5) + C
B) 2 ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> + 4x + 5) + C
C) <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> + 4x + 5) + C
D) -2 ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> + 4x + 5) + C
E) - <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C <div style=padding-top: 35px> + 4x + 5) + C
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> + C
D) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> + C
E) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <div style=padding-top: 35px> + C
Question
Evaluate Evaluate   dx.<div style=padding-top: 35px> dx.
Question
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
B) -3 <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
E) - <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <div style=padding-top: 35px> + C
Question
Evaluate the integral <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> cos ( <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> ) dx.

A) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> + C
B) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> + C
C) - <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> + C
D) - <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> + C
E) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C <div style=padding-top: 35px> + C
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Deck 6: Integration
1
Write sigma notation of 4 - 9 + 16 - 25 +... + . <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)

A) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)
B) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)
C) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)
D) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)
E) <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)     <strong>Write sigma notation of 4 - 9 + 16 - 25 +... + .    </strong> A)     B)     C)     D)     E)

2
Evaluate the sum <strong>Evaluate the sum   .</strong> A) 420 B) 70 C) 67 D) 417 E) 356 .

A) 420
B) 70
C) 67
D) 417
E) 356
420
3
Evaluate <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -   .

A) 1 + <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -
B) <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -
C) - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -
D) 1 - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -
E) - <strong>Evaluate   .</strong> A) 1 +   B)   C) -   D) 1 -   E) -
- -
4
Evaluate the <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   .

A) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   + <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +
B) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +   - <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +
C) <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +
D) 2 - <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +
E) 2 + <strong>Evaluate the   .</strong> A)   +   B)   -   C)   D) 2 -   E) 2 +
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5
Find and evaluate the sum <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)   .

A) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)
B) - <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)
C) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)
D) - <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)
E) <strong>Find and evaluate the sum   .</strong> A)   B) -   C)   D) -   E)
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6
Evaluate <strong>Evaluate   .</strong> A) -1 B) 0 C) 51 D) 1 E) 101 .

A) -1
B) 0
C) 51
D) 1
E) 101
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7
Express the sum <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   +..... + <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)   using sigma notation.

A) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)
B) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)
C) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)
D) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)
E) <strong>Express the sum   +   +   +   +..... +   using sigma notation.</strong> A)   B)   C)   D)   E)
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8
Simplify the expression <strong>Simplify the expression   .</strong> A) ln((2n)!) B)   C) (2 ln n)! D) 2 ln(n!) E) (ln(n))! .

A) ln((2n)!)
B) <strong>Simplify the expression   .</strong> A) ln((2n)!) B)   C) (2 ln n)! D) 2 ln(n!) E) (ln(n))!
C) (2 ln n)!
D) 2 ln(n!)
E) (ln(n))!
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9
Express the sum in the series <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k .

A) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 7k
B) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 5k
C) 3 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 7k
D) 3 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 5k
E) 2 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k - 9 <strong>Express the sum in the series   .</strong> A) 2   + 9   + 7k B) 2   + 9   + 5k C) 3   + 9   + 7k D) 3   + 9   + 5k E) 2   - 9   + 7k + 7k
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10
Evaluate the sum <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   Hint: <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   = <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   - <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)   .

A) 1
B) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)
C) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)
D) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)
E) <strong>Evaluate the sum   Hint:   =   -   .</strong> A) 1 B)   C)   D)   E)
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11
Evaluate the sum <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)   .

A) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)
B) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)
C) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)
D) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)
E) <strong>Evaluate the sum   .</strong> A)   B)   C)   D)   E)
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12
Express the sum <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n as a polynomial function of n.

A) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n n
B) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n n
C) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + 4n
D) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n + 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n - n
E) 3 <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n - <strong>Express the sum   as a polynomial function of n.</strong> A) 3   +     +   n B) 3   +     -   n C) 3   +     + 4n D) 3   + 3   - n E) 3   -     -   n n
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13
Find an approximation for the area under the curve y = 1 - <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?

A) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <
B) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <
C) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <
D) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <
E) (a) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   , (b) <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   ; <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <   < area under curve < <strong>Find an approximation for the area under the curve y = 1 -   and above the x-axis fromx = 0 to x = 1 using a sum of areas of four rectangles each having width 1/4 and (a) tops lying under the curve, or (b) tops lying above the curve. What does this tell you about the actual area under the curve?</strong> A) (a)   , (b)   ;   < area under curve <   B) (a)   , (b)   ;   < area under curve <   C) (a)   , (b)   ;   < area under curve <   D) (a)   , (b)   ;   < area under curve <   E) (a)   , (b)   ;   < area under curve <
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14
Given that the area under the curve y = <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   and above the x-axis from x = 0 to x = a > 0 is <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   square units, find the area under the same curve from x = -2 to x = 3.

A) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   square units
B) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)   square units
C) 9 square units
D) 6 square units
E) <strong>Given that the area under the curve y =   and above the x-axis from x = 0 to x = a > 0 is   square units, find the area under the same curve from x = -2 to x = 3.</strong> A)   square units B)   square units C) 9 square units D) 6 square units E)
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15
Construct and simplify a sum approximating the area above the x-axis and under the curve y = <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.

A) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
B) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
C) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 6 square units
D) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 6 square units
E) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curve y =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying under or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
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16
Construct and simplify a sum approximating the area above the x-axis and under the curvey = <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.

A) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
B) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
C) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 6 square units
D) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 6 square units
E) <strong>Construct and simplify a sum approximating the area above the x-axis and under the curvey =   between x = 0 and x = 3 by using n rectangles having equal widths and tops lying above or on the curve. Find the actual area as a suitable limit.</strong> A)   , area = 9 square units B)   , area = 9 square units C)   , area = 6 square units D)   , area = 6 square units E)   , area = 9 square units , area = 9 square units
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17
Write the area under the curve y = cos x and above the interval [0, π\pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.

A) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =       <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =
B) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =       <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =
C) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =       <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =
D) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =       <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =
E) Area =  <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =       <strong>Write the area under the curve y = cos x and above the interval [0,   \pi /2] on the x-axis as the limit of a sum of areas of n rectangles of equal widths. Have the upper-right corners of the rectangles lie on the curve.</strong> A) Area =     B) Area =     C) Area =     D) Area =     E) Area =
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18
Given that <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units = <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units , find the area under y = <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.

A) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units square units
B) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units square units
C) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units square units
D) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units square units
E) <strong>Given that   =   , find the area under y =   and above the interval [0, a] on the x-axis (where a > 0 ) by interpreting the area as a limit of a suitable sum.</strong> A)   square units B)   square units C)   square units D)   square units E)   square units square units
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19
The limit  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi    <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi   represents the area of a certain region in the xy-plane. Describe the region.

A) region under y = cos x, above y = 0, between x = 0 and x =  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi
B) region under y = sin x, above y = 0, between x = 0 and x =  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi
C) region under y = cos x, above y = 0, between x = 0 and x = π\pi
D) region under y = sin x, above y = 0, between x = 0 and x = π\pi
E) region under y = cos x, above y = 0, between x=  <strong>The limit     represents the area of a certain region in the xy-plane. Describe the region.</strong> A) region under y = cos x, above y = 0, between x = 0 and x =   B) region under y = sin x, above y = 0, between x = 0 and x =   C) region under y = cos x, above y = 0, between x = 0 and x =  \pi  D) region under y = sin x, above y = 0, between x = 0 and x =   \pi  E) region under y = cos x, above y = 0, between x=   and x =  \pi   and x = π\pi
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20
By interpreting it as the area of a region in the xy-plane, evaluate the limit  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1)  .  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1)   <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1)

A) 2 + 2 π\pi (the area of the trapezoidal region under y = 1 + π\pi x, above y = 0 from x = 0 to x = 2)
B) 1 + π\pi (the area of the trapezoidal region under y = 1 + 2 π\pi x, above y = 0 from x = 0 to x = 1)
C) 2 + 4 π\pi (the area of the trapezoidal region under y = 1 + 2 π\pi x, above y = 0 from x = 0 to x = 2)
D) 4 + 2 π\pi (the area of the trapezoidal region under y = 2 + π\pi x, above y = 0 from x = 0 to x = 2)
E) 2 +  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A) 2 + 2  \pi  (the area of the trapezoidal region under y = 1 +   \pi x, above y = 0 from x = 0 to x = 2) B) 1 +   \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 1) C) 2 + 4  \pi  (the area of the trapezoidal region under y = 1 + 2  \pi x, above y = 0 from x = 0 to x = 2) D) 4 + 2  \pi  (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 2) E) 2 +   (the area of the trapezoidal region under y = 2 +   \pi x, above y = 0 from x = 0 to x = 1)  (the area of the trapezoidal region under y = 2 + π\pi x, above y = 0 from x = 0 to x = 1)
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21
By interpreting it as the area of a region in the xy-plane, evaluate the limit  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4)  .  <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4)   <strong>By interpreting it as the area of a region in the xy-plane, evaluate the limit   .    </strong> A)   \pi  (the area of a quarter of a circular disk of radius 2) B) 2  \pi  (the area of half of a circular disk of radius 2) C) 4  \pi  (the area of a circular disk of radius 2) D) 8  \pi  (the area of half of a circular disk of radius 4) E) 16  \pi  (the area of a circular disk of radius 4)

A) π\pi (the area of a quarter of a circular disk of radius 2)
B) 2 π\pi (the area of half of a circular disk of radius 2)
C) 4 π\pi (the area of a circular disk of radius 2)
D) 8 π\pi (the area of half of a circular disk of radius 4)
E) 16 π\pi (the area of a circular disk of radius 4)
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22
Let P denote the partition of the interval [1, 3] into 4 subintervals of equal length <strong>Let P denote the partition of the interval [1, 3] into 4 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f,P) and L(f,P) for the function f(x) = 4x<sup>2</sup>.</strong> A) U(f,P) = 40, L(f,P) = 30 B) U(f,P) = 41, L(f,P) = 29 C) U(f,P) = 42, L(f,P) = 28 D) U(f,P) = 43, L(f,P) = 27 E) U(f,P) = 44, L(f,P) = 26 x = 1/2.Evaluate the upper and lower Riemann sums U(f,P) and L(f,P) for the function f(x) = 4x2.

A) U(f,P) = 40, L(f,P) = 30
B) U(f,P) = 41, L(f,P) = 29
C) U(f,P) = 42, L(f,P) = 28
D) U(f,P) = 43, L(f,P) = 27
E) U(f,P) = 44, L(f,P) = 26
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23
Let P denote the partition of the interval [1, 2] into 8 subintervals of equal length <strong>Let P denote the partition of the interval [1, 2] into 8 subintervals of equal length  x = 1/8.Evaluate the upper and lower Riemann sums U(f P) and L(f,P) for the function f(x) = 1/x.Round your answers to 4 decimal places.</strong> A) U(f,P) = 0.7110, L(f,P) = 0.6781 B) U(f,P) = 0.7254, L(f,P) = 0.6629 C) U(f,P) = 0.7302, L(f,P) = 0.6571 D) U(f,P) = 0.7378, L(f,P) = 0.6510 E) U(f,P) = 0.7219, L(f,P) = 0.6683 x = 1/8.Evaluate the upper and lower Riemann sums U(f P) and L(f,P) for the function f(x) = 1/x.Round your answers to 4 decimal places.

A) U(f,P) = 0.7110, L(f,P) = 0.6781
B) U(f,P) = 0.7254, L(f,P) = 0.6629
C) U(f,P) = 0.7302, L(f,P) = 0.6571
D) U(f,P) = 0.7378, L(f,P) = 0.6510
E) U(f,P) = 0.7219, L(f,P) = 0.6683
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24
Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length <strong>Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) =   .Round your answers to 4 decimal places.</strong> A) U(f,P) = 4.9115, L(f,P) = 4.4115 B) U(f,P) = 4.9135, L(f,P) = 4.4109 C) U(f,P) = 4.9180, L(f,P) = 4.4057 D) U(f,P) = 4.9002, L(f,P) = 4.4250 E) U(f,P) = 4.9183, L(f,P) = 4.4093 x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) = <strong>Let P denote the partition of the interval [1, 4] into 6 subintervals of equal length  x = 1/2.Evaluate the upper and lower Riemann sums U(f, P) and L(f,P) for the function f(x) =   .Round your answers to 4 decimal places.</strong> A) U(f,P) = 4.9115, L(f,P) = 4.4115 B) U(f,P) = 4.9135, L(f,P) = 4.4109 C) U(f,P) = 4.9180, L(f,P) = 4.4057 D) U(f,P) = 4.9002, L(f,P) = 4.4250 E) U(f,P) = 4.9183, L(f,P) = 4.4093 .Round your answers to 4 decimal places.

A) U(f,P) = 4.9115, L(f,P) = 4.4115
B) U(f,P) = 4.9135, L(f,P) = 4.4109
C) U(f,P) = 4.9180, L(f,P) = 4.4057
D) U(f,P) = 4.9002, L(f,P) = 4.4250
E) U(f,P) = 4.9183, L(f,P) = 4.4093
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25
Calculate the upper Riemann sum for f(x) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.

A) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 3, area = 12 square units
B) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 3, area = 12 square units
C) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 3, area = 12 square units
D) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 3, area = 12 square units
E) U(f,P) = <strong>Calculate the upper Riemann sum for f(x) =   + 1 corresponding to a partition P of the interval [0, 3] into n equal subintervals of length 3/n. Express the sum in closed form and use it to calculate the area under the graph of f, above the x-axis, from x = 0 to x = 3.</strong> A) U(f,P) =   + 3, area = 12 square units B) U(f,P) =   + 3, area = 12 square units C) U(f,P) =   + 3, area = 12 square units D) U(f,P) =   + 3, area = 12 square units E) U(f,P) =   + 3, area = 12 square units + 3, area = 12 square units
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26
Calculate the lower Riemann sum for f(x) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units n <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units = 1 (which can be verified by using l'Hopital's Rule), find the area under y = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units and above the x-axis between x = 0 and x = 1.

A) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units , area = e square units
B) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units square units
C) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units , area = e - 1 square units
D) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units square units
E) L(f,P) = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units , area = <strong>Calculate the lower Riemann sum for f(x) =   corresponding to a partition P of the interval [0, 1] into n equal subintervals of length 1/n. Given that   n   = 1 (which can be verified by using l'Hopital's Rule), find the area under y =   and above the x-axis between x = 0 and x = 1.</strong> A) L(f,P) =   , area = e square units B) L(f,P) =   , area =   square units C) L(f,P) =   , area = e - 1 square units D) L(f,P) =   , area =   square units E) L(f,P) =   , area =   square units square units
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27
Express <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.

A) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =
B) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =
C) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =
D) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =
E) <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       dx = <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =       <strong>Express   dx as a limit of Riemann sums corresponding to partitions of [0, 1] into equal subintervals and using the values of f at the midpoints of the subintervals.</strong> A)   dx =       B)   dx =       C)   dx =       D)   dx =       E)   dx =
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28
Express <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.

A) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . .
B) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . .
C) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . .
D) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . .
E) <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . dx = <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . <strong>Express   dx as a limit of lower Riemann sums corresponding to partitions of[0, 2] into equal subintervals.</strong> A)   dx =     . B)   dx =     . C)   dx =     . D)   dx =     . E)   dx =     . .
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29
Write the following limit as a definite integral: . <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)   <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)

A) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)
B) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)
C) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)
D) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)
E) <strong>Write the following limit as a definite integral: .      </strong> A)   B)   C)   D)   E)
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30
Write the following limit as a definite integral: <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)   <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)

A) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)
B) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)
C) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)
D) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)
E) <strong>Write the following limit as a definite integral:      </strong> A)   B)   C)   D)   E)
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31
Use the limit definition of definite integral to evaluate <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1 dx.

A) 0
B) - <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1
C) <strong>Use the limit definition of definite integral to evaluate   dx.</strong> A) 0 B) -   C)   D) 1 E) -1
D) 1
E) -1
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32
Use the limit definition of the definite integral to evaluate <strong>Use the limit definition of the definite integral to evaluate   dx.</strong> A) 10 B) 18 C) 6 D) 30 E) 9 dx.

A) 10
B) 18
C) 6
D) 30
E) 9
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33
Write the following limit as a definite integral: <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx

A) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx dx
B) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx dx
C) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx dx
D) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx dx
E) <strong>Write the following limit as a definite integral:    </strong> A)   dx B)   dx C)   dx D)   dx E)   dx dx
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34
Given that <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2 and <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2 = -1, find <strong>Given that   and   = -1, find  </strong> A) -3 B) -1 C) 3 D) 1 E) -2

A) -3
B) -1
C) 3
D) 1
E) -2
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35
Suppose that <strong>Suppose that  </strong> A) -5 B) -3 C) -7 D) -1 E) 7

A) -5
B) -3
C) -7
D) -1
E) 7
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36
Evaluate <strong>Evaluate   dx.</strong> A) 42 B) 0 C) 21 D) 51 E) 16 dx.

A) 42
B) 0
C) 21
D) 51
E) 16
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37
If f and g are integrable functions on the interval [a, b], then If f and g are integrable functions on the interval [a, b], then   =   .   dx. = If f and g are integrable functions on the interval [a, b], then   =   .   dx. . If f and g are integrable functions on the interval [a, b], then   =   .   dx. dx.
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38
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39
If f(x) is an even function and g(x) is an odd function ,both of which are integrable over the interval [-a, a], then If f(x) is an even function and g(x) is an odd function ,both of which are integrable over the interval [-a, a], then
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40
Evaluate <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   (2 - <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -   ) dx by interpreting the integral as representing an area.

A) <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -
B) 4
C) 2
D) <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -
E) - <strong>Evaluate   (2 -   ) dx by interpreting the integral as representing an area.</strong> A)   B) 4 C) 2 D)   E) -
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41
Evaluate  <strong>Evaluate     dx by interpreting the integral as representing an area.</strong> A) 8  \pi  B) 4  \pi  C) 16  \pi  D) 8 E) 16   <strong>Evaluate     dx by interpreting the integral as representing an area.</strong> A) 8  \pi  B) 4  \pi  C) 16  \pi  D) 8 E) 16  dx by interpreting the integral as representing an area.

A) 8 π\pi
B) 4 π\pi
C) 16 π\pi
D) 8
E) 16
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42
Given that  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)    dx =  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)    , evaluate  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)    dx.

A) π\pi /4
B) π\pi /2
C) π\pi
D) 1/2
E)  <strong>Given that   dx =   , evaluate   dx.</strong> A)  \pi /4 B)   \pi /2 C)   \pi  D) 1/2 E)
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43
Given the piecewise continuous function f(x) = Given the piecewise continuous function f(x) =   evaluate   by using the properties of definite integrals and interpreting integrals as areas. evaluate Given the piecewise continuous function f(x) =   evaluate   by using the properties of definite integrals and interpreting integrals as areas. by using the properties of definite integrals and interpreting integrals as areas.
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44
If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then   =2   . =2 If f(x) is an even function integrable on the closed interval [0 , 2a] , a > 0 , then   =2   . .
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45
Find the average value of the function f(x) = sin (x/2) + π\pi on [- π\pi , π\pi ].

A) π\pi
B)  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2
C) 2 π\pi
D)  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2
E) 2  <strong>Find the average value of the function f(x) = sin (x/2) +   \pi  on [-  \pi ,   \pi ].</strong> A)   \pi  B)   C) 2  \pi  D)   E) 2
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46
The velocity of a particle moving along a straight line at time t is given by v(t) = t2 - 6t + 8 m/s.Find the distance travelled by the particle from t = 0 to t = 3.

A) <strong>The velocity of a particle moving along a straight line at time t is given by v(t) = t<sup>2</sup> - 6t + 8 m/s.Find the distance travelled by the particle from t = 0 to t = 3.</strong> A)   m B) 21 m C) 6 m D) 4 m E) 33 m m
B) 21 m
C) 6 m
D) 4 m
E) 33 m
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47
What values of a and b, satisfying a < b, maximize the value of  <strong>What values of a and b, satisfying a < b, maximize the value of  </strong> A) a = 0, b = 1 B) a = -1, b = 1 C) a = 0, b = 2 D) a = - \infty , b =  \infty  E) a = -1, b = 0

A) a = 0, b = 1
B) a = -1, b = 1
C) a = 0, b = 2
D) a = - \infty , b = \infty
E) a = -1, b = 0
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48
What values of a and b, satisfying a < b, maximize the value of  <strong>What values of a and b, satisfying a < b, maximize the value of  </strong> A) a = -2, b = 4 B) a = 0, b = 4 C) a = - \infty , b =  \infty  D) a = -2, b = 0 E) a = 1, b = 3

A) a = -2, b = 4
B) a = 0, b = 4
C) a = - \infty , b = \infty
D) a = -2, b = 0
E) a = 1, b = 3
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49
Evaluate the definite integral <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12

A) - <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12
B) <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12
C) <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12
D) - <strong>Evaluate the definite integral  </strong> A) -   B)   C)   D) -   E) -12
E) -12
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50
Compute the definite integral <strong>Compute the definite integral   - 2x + 1)dx.</strong> A) 14 B) 22 C) 21 D) 24 E) 20 - 2x + 1)dx.

A) 14
B) 22
C) 21
D) 24
E) 20
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51
Compute the integral <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   - x)dx.

A) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -
B) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   + <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -
C) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -
D) 4 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   + <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -
E) 2 <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -   - <strong>Compute the integral   - x)dx.</strong> A) 4   -   B) 4   +   C) 4   -   D) 4   +   E) 2   -
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52
Compute the integral <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)

A) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)
B) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)
C) - <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)
D) - <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)
E) <strong>Compute the integral  </strong> A)   B)   C) -   D) -   E)
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53
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)   dx.

A) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)
B) 1
C) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)
D) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)
E) <strong>Evaluate the integral   dx.</strong> A)   B) 1 C)   D)   E)
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54
Find <strong>Find   dx.</strong> A)   B)   C)   D)   E)   dx.

A) <strong>Find   dx.</strong> A)   B)   C)   D)   E)
B) <strong>Find   dx.</strong> A)   B)   C)   D)   E)
C) <strong>Find   dx.</strong> A)   B)   C)   D)   E)
D) <strong>Find   dx.</strong> A)   B)   C)   D)   E)
E) <strong>Find   dx.</strong> A)   B)   C)   D)   E)
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55
Evaluate the integral <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -

A) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -
B) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -
C) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -
D) <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -
E) - <strong>Evaluate the integral  </strong> A)   B)   C)   D)   E) -
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56
Find the average value of the function f(x) = <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   + 3 <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   - 2 <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)   - 3x + 1 on the interval [0, 2].

A) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)
B) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)
C) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)
D) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)
E) <strong>Find the average value of the function f(x) =   + 3   - 2   - 3x + 1 on the interval [0, 2].</strong> A)   B)   C)   D)   E)
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57
Find the average value of the function f(x) = sin x on [0, 3 π\pi /2].

A)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)
B)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)
C)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)
D)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)
E)  <strong>Find the average value of the function f(x) = sin x on [0, 3  \pi /2].</strong> A)   B)   C)   D)   E)
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58
Evaluate the definite integral <strong>Evaluate the definite integral   dx.</strong> A) 11.1 B) 9.9 C) 10.1 D) 15 E) -10.1 dx.

A) 11.1
B) 9.9
C) 10.1
D) 15
E) -10.1
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59
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) 4 B) 6 C) 7 D) 5 E) 3 dx.

A) 4
B) 6
C) 7
D) 5
E) 3
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60
  dx = 4 dx = 4
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61
Find the average value of the function f(x) =  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)    3x, over the interval [- π\pi /12, π\pi /12].

A)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)
B)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)
C)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)
D)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)
E)  <strong>Find the average value of the function f(x) =   3x, over the interval [-  \pi /12,   \pi /12].</strong> A)   B)   C)   D)   E)
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62
Let f(t) = Let f(t) =   Evaluate   dt. Evaluate Let f(t) =   Evaluate   dt. dt.
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63
Evaluate the definite integral <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)   dx.

A) - <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)
B) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)
C) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)
D) -33
E) <strong>Evaluate the definite integral   dx.</strong> A) -   B)   C)   D) -33 E)
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64
Find the derivative of F(x) = <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x

A) 2 ln x
B) 0
C) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x ln(u)
D) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x ln x
E) <strong>Find the derivative of F(x) =  </strong> A) 2 ln x B) 0 C)   ln(u) D)   ln x E)   ln x ln x
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65
Find the derivative of F(x) = <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) dt.

A) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) )
B) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) sin ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) )
C) 2 <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) )
D) <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) )
E) <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) cos ( <strong>Find the derivative of F(x) =   dt.</strong> A) 2   cos (   ) B) 2   sin (   ) C) 2   cos (   ) D)   cos (   ) E)   cos (   ) )
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66
Given that the relation 3 <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) + <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) dt = 3 defines y implicitly as a differentiable function of x, find <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y) .

A) <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y)
B) <strong>Given that the relation 3   +   dt = 3 defines y implicitly as a differentiable function of x, find   .</strong> A)   B)   C) 6x + cos (t) - t sin (t) D) 6x +cos(y) - ysin (y) E) 6x + ycos (y)
C) 6x + cos (t) - t sin (t)
D) 6x +cos(y) - ysin (y)
E) 6x + ycos (y)
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67
Evaluate <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)   <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)

A) - <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)
B) - <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)
C) <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)
D) 1
E) <strong>Evaluate    </strong> A) -   B) -   C)   D) 1 E)
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68
Find the point on the graph of the function f(x) = <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)   dt where the graph has a horizontal tangent line.

A) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)
B) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)
C) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)
D) (1, 0)
E) <strong>Find the point on the graph of the function f(x) =   dt where the graph has a horizontal tangent line.</strong> A)   B)   C)   D) (1, 0) E)
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69
: <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   is equal to

A) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x
B) <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x   - <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x
C) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x
D) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x
E) 2x <strong>:     is equal to</strong> A) 2x   B)   -   C) 2x   D) 2x   E) 2x
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70
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C + C
E) - <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D) -     + C E) -     + C + C
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71
Find the inflection point of the function f(x) = <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   dt, where x > 0.

A) (1, 0)
B) (e, <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   )
C) (e, 1)
D) (e, <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)   )
E) <strong>Find the inflection point of the function f(x) =   dt, where x > 0.</strong> A) (1, 0) B) (e,   ) C) (e, 1) D) (e,   ) E)
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72
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C dx.

A) ln(3 <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C ) + C
B) ln <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C + C
C) 3ln <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C + C
D) <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C + C
E) <strong>Evaluate the integral   dx.</strong> A) ln(3   ) + C B) ln   + C C) 3ln   + C D)   + C E)   + C + C
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73
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C + C
C) - <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C + C
E) <strong>Evaluate the integral   dx.</strong> A)     + C B)   + C C) -     + C D) -   + C E)   + C + C
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74
Evaluate the integral <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)

A) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   - <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)
B) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   + <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)
C) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   - <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)
D) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)   + <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)
E) <strong>Evaluate the integral  </strong> A)   -   B)   +   C)   -   D)   +   E)
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75
Evaluate the integral dx. <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C

A) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C + C
B) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C + C
C) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C + C
D) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C + C
E) <strong>Evaluate the integral dx.    </strong> A)   + C B)   + C C)   + C D)   + C E)   + C + C
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76
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C dx.

A) ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C + 4x + 5) + C
B) 2 ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C + 4x + 5) + C
C) <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C + 4x + 5) + C
D) -2 ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C + 4x + 5) + C
E) - <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C ln( <strong>Evaluate the integral   dx.</strong> A) ln(   + 4x + 5) + C B) 2 ln(   + 4x + 5) + C C)   ln(   + 4x + 5) + C D) -2 ln(   + 4x + 5) + C E) -   ln(   + 4x + 5) + C + 4x + 5) + C
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77
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C + C
B) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C + C
D) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C + C
E) <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C <strong>Evaluate the integral   dx.</strong> A)     + C B)     + C C)     + C D)     + C E)     + C + C
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78
Evaluate Evaluate   dx. dx.
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79
Evaluate the integral <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C dx.

A) <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C + C
B) -3 <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C + C
C) <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C + C
D) - <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C + C
E) - <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C <strong>Evaluate the integral   dx.</strong> A)     + C B) -3   + C C)     + C D) -     + C E) -     + C + C
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80
Evaluate the integral <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C cos ( <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C ) dx.

A) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C + C
B) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C + C
C) - <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C + C
D) - <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C + C
E) <strong>Evaluate the integral   cos (   ) dx.</strong> A)   + C B)   + C C) -   + C D) -   + C E)   + C + C
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