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Earn points by helping other students or get them with a premium plan
A final exam in calculus for the course appm 1350, held during the summer of 2009. The exam covers various topics such as limits, derivatives, integrals, and trigonometric identities. Students are required to work all problems on the exam, show their work, and are not allowed to use textbooks, class notes, calculators, or crib sheets.
Typology: Exams
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On the front of your bluebook write: (1) your name, (2) your student ID number, and (3) a grading table. You must work all of the problems on the exam. SHOW ALL YOUR WORK in your bluebook and BOX in your final answers. A correct answer with no relevant work may receive no credit, while an incorrect answer accompanied by some correct work may receive partial credit. Text books, class notes, calculators and crib sheets are NOT permitted. Please start each new problem on a new page of the bluebook.
(a) If f ′(x) ≥ 0 for all x and f (0) = 0, the f (x) ≥ 0 for all x. (b) The function f (t) = sin^ t t^2
has a continuous extension at t = 0. (c) The derivative of the function csc^2 x is same as the derivative of cot^2 x.
(d)
∫ (^) π
−π
x sin x x^2 + 1 dx^ = 0
(e) If f and g are continuous and f (x) ≥ g(x) for a ≤ x ≤ b , then
∫ (^) b
a
f (x) dx ≥
∫ (^) b
a
g(x) dx
(f) There exists a function f such that f (1) = −2, f (3) = 0, and f ′(x) > 1 for all x. (g) If g is continuous and g(5) = 2 and g(4) = 3 then lim x→ 2 g(4x^2 − 11) = 2. (h) All continuous functions have derivatives. (i) All continuous functions have antiderivatives. (j) The inverse function of y = e^3 x^ is y =^1 3
ln(x)
(a) Find the average rate of change of a(r) = log 10 (r^2 + 1) on the interval [0, 3]. (b) Find the instantaneous rate of change of a(r) = log 10 (r^2 + 1) at t = 3.
(c) Find all critical points of the function h(t) = t +
t.
(d) Evalutate:
k=
sin (2k^ + 1) 2 π
(e) State the Fundamental Theorem of Calculus, Parts I and II.
(a) (^) xlim→ 0 x^ sin^ x 1 − cos x (b) lim z→ 0 +^
z^1 −z
(c) (^) hlim→ 0
h
∫ (^) h
0
arccos t 1 + t^2 dt
(a) y = (arcsin x) [ln (arctan x)]
(b) y = e
x^2 x
(c) y = sin
(^2) x tan (^4) x (x^2 + 1)^2
(a)
(tan x)−^3 /^2 sec^2 x dx
(b)
∫ (^) ln 16
0
et/^4 dt
(c)
x(1 + (ln x)^2 )
dx
Complete 2 of the following 3 problems (A, B, and C). Select either problem A, B, or C to be Q6 (worth 20 points), and one of the remaining two problems to be Q7 (worth 15 points). You MUST identify in your bluebook either A, B, or C for each of Q6 and Q7. Failure to do so will result in the WORST-CASE scenario point distribution!
A. If f is a continuous function such that ∫ (^) x
0
f (t) dt = xe^2 x^ +
∫ (^) x
0
e−tf (t) dt
for all x, find an explicit formula for f (x). B. For what values of k does the function y = ekx^ satisfy the equation y′′^ + 6y′^ + 8 = 0? C. Find the linearization of f (x) = ln(1 + 3x) around c = 0. Use it to give an approximate value of ln(1.03).
EXTRA CREDIT: (2 points each)