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Material Type: Exam; Professor: Martin; Class: Calculus I: Honors; Subject: Mathematics; University: University of Kansas; Term: Fall 2007;
Typology: Exams
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Additional Review Problems for the Final Examination - Covers [4.2, 6.7] in Stewart
Note: These problems are in addition to the Review Problems for the Midterm Examination (which covers [1.1, 4.1] in Stewart). A portion of the Final Examination will include material from [1.1, 4.1] in Stewart.
(a) f (x) = 2x^3 − 3 x^2 − 12 x + π^2 (b) g(x) = x^3 − 3 x^2 + 3x + 17 (c) h(t) =
t^4 16
t^3 3
3 t^2 8 (d) s(u) = u^3 − 12 u^2 + 2
(e) g(t) = ln t t
(f) h(u) = 2ueu
x
− 4. Find the domain of f. Determine the zeros of f. Find the intervals on
which f is increasing. Find the intervals on which f is concave downward.
( πt 2
)
( πt 6
)
. For 0 ≤ t ≤ 8, the
function g is decreasing most rapidly when t = [Hint: Use a calculator.]
(A) 0.949 (B) 2.017 (C) 3.106 (D) 5.965 (E) 8.
(a) f (x) = x^3 − 3 x^2 + 2, [− 2 , 3] (b) f (x) =
2 x x^2 + 4
(c) f (x) = x − 2 sin x, [0, π] (d) f (x) = xe−x 2 , (−∞, ∞)
(A) 8 + 6
3 , 0 (E) None of these.
decreasing?
(a) Find the critical numbers of f , the intervals on which f is increasing or decreasing. Find the (x, y) coordinates of any local extrema.
(b) Find the inflection points of f and the intervals on which f is concave upward or concave downward.
(c) Sketch the graph of f by using the information obtained in (a) and (b).
x
y
0
(^13) (4 − x)
(^23) , then f ′(x) =
4 − 3 x 3 x
2 (^3) (4 − x) 1 3
(a) Find the critical numbers of the function f. What is the domain of f ′?
(b) Determine the intervals on which f is increasing or decreasing. (c) Sketch a rough graph of f below.
x
y
0
(a) (^) xlim→∞
ln
( x^3
)
x^2
(b) (^) xlim→∞ ex^ − x ex^ + x
(c) (^) xlim→∞ 2 − x + x^2 2 + x − 6 x^2 (d) lim x→ 0
sin x x
ex^ (e) (^) xlim→∞ e−x^ sin x (f) lim x→√ 2
( x^2 − 2 x −
)
(g) lim x→ 1 −
( 1 ln x
x − 1
) (h) lim x→π/ 2
( π 2
− x
) tan x (i) lim x→ 1 x 1 −^1 x
ax^ − bx x
(b) Use Newton’s method with initial approximation x 1 = 2 to estimate the solution of the equation x^3 − 2 x − 8 = 0 in the interval (2, 3) accurate to eight decimal places. Give your sequence of approximations.
(a) For what intervals of t, 0 ≤ t ≤ 5, is the particle moving upward? (b) Write an expression for the acceleration a(t) of the particle in terms of t. (c) Write an expression for the position y(t) of the particle in terms of t. (d) For t > 0, find the position of the particle the first time when the velocity of the particle is zero.
(b) In a three hour trip, the velocity of a car at each half hours was recorded as follows:
Time(Hours) 0. 5 1 1. 5 2 2. 5 3 Velocity(MPH) 0 40 55 50 35 30 0
Estimate the distance traveled by using the trapezoidal approximation T 6.
(c) Estimate the average velocity of the car during the trip.
the Simpson’s approximation to
∫ (^3)
0
√ x^2 + 1 dx.
t (^04 8 12 16 20) 24 (weeks)
4000
8000
r
12000
(a) f (t) > 0 on [1, 5] (b) 8 ≤ f (5) ≤ 12 (c) 8 ≤ f (5) − f (1) ≤ 12 (d) f (t) is concave upward on [1, 5] (e) f (t) is decreasing on [1, 5]
∫ (^3)
0
f (x) dx = 5 and
∫ (^3)
2
f (x) dx = 3, then
∫ (^0)
2
(2x − 3 f (x)) dx =
(a) 2 (b) − 10 (c) 10 (d) − 2 (e) 6
(a)
∫ (^2)
0
f (x) dx (b)
∫ (^4)
2
f (x) dx (c)
∫ (^7)
4
f (x) dx (d)
∫ (^8)
0
f (x) dx.
(^3) y = f(x)
y 4
x
(a) f (x) =
∫ (^) x
0
t^2 sin t dt (b) h(u) =
∫ (^1)
u
√ 1 + x^4 dx
(c) g(x) =
∫ (^) x 2
1
cos(t^2 ) dt (d) k(t) =
∫ (^) t √ t
ex x dx
(a)
∫ esin^ x^ cos x dx (b)
∫ x + 1 x^2 + 2x + 5 dx (c)
∫ (^2)
0
| sin(πx)| dx
(d)
(1 − 4 x)^2
dx (e)
∫ x(sin x) dx (f)
∫ (^2)
0
6 x(x^2 + 2)^2 dx
(g)
∫ (^3)
1
2 e−^3 x^ dx (h)
∫ x^2
√ 1 + x^3 dx (i)
∫ (^) π/ 2
0
(cos x)
sin x dx
(j)
∫ (^6)
4
x
x − 4 dx (k)
∫ (^3)
2
( x +
x
) 2 dx (l)
∫ (xex^ + e1+x) dx
(a) 2
∫ (^2)
1
f (x) dx (b)
∫ (^1)
− 1
f (x) dx (c) 0 (d)
(e) None of above
∫ (^) x
0
f (t) dt. Identify each graph, and explain
your choices.
y
x
a
b c
(a)
∫ (^) ∞
0
(x + 2)^4
dx (b)
∫ (^) ∞
1
ln x x^2
dx (c)
∫ (^0)
−∞
e−^2 x^ dx
(d)
∫ (^1)
− 1
2 x + 1
dx (e)
∫ (^) e
1
dx x
ln x
(f)
∫ (^6)
2
y √ y − 2
dy
(a) Set up the definite integral for the area of R and evaluate it exactly. (b) Find the centroid of (¯x, ¯y) of R. (c) Set up the integral for the volume of the solid generated when R is revolved about the x axis and evaluate it exactly. (d) Set up definite integrals to compute the perimeter of R. Do not compute the integrals.
(a) Which car is ahead after one minute? Explain. (b) What is the meaning of the area of the shaded region? (c) Which car is ahead after two minutes? Explain. (d) Estimate the time at which the cars are again side by side.
A
B
0 1 2 t(min)
v
(a) y = x^2 − 6 x, y = 12x − 2 x^2 (b) x − 2 y + 7 = 0, y^2 − 6 y − x = 0
R^2 − x^2 and the x axis, R − h ≤ x ≤ R, about the x axis.
x. Find the volume of the solid obtained by rotating R about
(a) the x-axis, (b) the y-axis, (c) the line x = −1, (d) the line y = −1.
x
y
R
(a) Use a calculator to estimate the x coordinates of the two points of intersections of the curves of f and g. (b) Express the total area of R with definite integrals. (You don’t have to evaluate it.)
∫ (^) π/ 2
0
sin^3 x cos x dx is equal to
the integral
∫ (^1)
0
u^3 du where u =
(a) cos x (b) − cos x (c) sin x (d) − sin x (e) None of these
∑^10
i=
i^2 103 denote a Riemann right-hand sum of
∫ (^1)
0
x^2 dx. Which of the following
statements is true?
(a) S =
∫ (^1)
0
x^2 dx (b) S <
∫ (^1)
0
x^2 dx (c) S >
∫ (^1)
0
x^2 dx
(d) S = −
∫ (^1)
0
x^2 dx (e) None of these
∫ x^2 (cos x) dx = f (x) −
∫ (2x)(sin x) dx, then f (x) = (a) 2 sin x + 2x(cos x) (b) x^2 sin x (c) 2x(cos x) − x^2 (sin x) (d) 4x cos x − 2 x(sin x) (e) (2 − x^2 )(cos x) − 4 sin x.
∫ (^) x 2
0
esin^ t^ dt. Then F ′(π) =
(a) 1 (b) 0 (c) 2π (d) π^2 (e) None of these
(a) 0. 4388 (b) − 0. 4388 (c) 0 (d) 0. 61562 (e) − 0 .61562.
∫ (^1)
0
tan−^1 x dx =
(a) π 4 (b) π − 4 ln 2 4 (c) π + 4 ln 2 4 (d) π − 2 ln 2 4 (e) π + 2 ln 2 4
∫ (^) π/ 2
0
cos θ √ 1 + sin θ
dθ =
(a) −2(
2 − 1) (b) − 2
2 (c) 2
2 (d) 2(
2 − 1) (e) 2(
(a)
∫ (^3)
0
g(x) dx > 0 (b)
∫ (^3)
0
g′(x) dx > 0 (c)
∫ (^3)
0
g′′(x) dx > 0
and f ′′(x) = 2 x(x^2 + 3) (x^2 − 1)^3
Find the following with exact answers. You must show all your work to justify your answers.
(a) The intervals where f (x) is increasing and decreasing. (b) The intervals where f (x) is concave up. (c) Using the results from (a), find the x coordinates of all relative maximum points. (d) Using the results from (b) find all inflection points. (Points have two coordinates) (e) The equations of all horizontal asymptotes. Justify your answer. (f) The equations of all vertical asymptotes. Justify your answer. (g) Carefully graph f on the provided coordinate system. Mark all asymptotes with dotted lines, label at least two points.
x
y
0
(a) 2000 m^2 (b) 2500 m^2 (c) 3500 m^2 (d) 2400 m^2 (e) 1600 m^2
(a) −ke−k^ − e−k^ (b) 12 k^2 e−k^ (c) ke−k^ − e−k^ − 1 (d) 1 − ke−k^ − e−k^ (e) ke−k^ − e−k^ + 1
points and asymptotes. Give all coordinates in exact forms, not decimal approximations. Sketch the graph of g(x) showing all this information and labeling important points.
(a) Find the area of R. Set up the integral and evaluate it exactly. (b) Find the centroid (x, y) of R. (c) Set up the integral for the volume of the solid generated when R is revolved about the x-axis and evaluate it exactly.
(a) Find the area of R Set up the integral and evaluate it exactly. (b) Find the centroid (x, y) of R. (c) Set up the integral for the volume of the solid generated when R is revolved about the x-axis and evaluate it exactly.
(d) Find the volume of the solid whose base is R and whose cross sections cut by planes per- pendicular to the x-axis are squares. Set up the integral and evaluate it exactly.
(e) Find the perimeter of R. Set up the definite integrals and use your calculator to approximate them.
(a) 2π (b) 4π (c) 6π (d) 9π (e) 12π
(a)
2 − e^2 2
2 (b)
e^2 − 3 2 (c)
3 − e^2 2 (d)
e^2 − 2 2 (e)
e^2 − 1 2
0 x < 0 2 x 0 ≤ x ≤ 1 0 x > 1
(a)
∫ (^1)
0
(cos t − 2 sin t) dt (b)
∫ (^1)
0
√ 3 + cos^2 t dt (c)
∫ (^1)
0
√ 3 + sin^2 t dt
(d)
∫ (^1)
0
√ 1 + 3 cos^2 t dt (e)
∫ (^1)
0
√ 3 + sin^2 t dt (f) none of these