Time and Date Stamps (logged): 17:12:20 06-10-2020 °¶Ÿ°±Ÿ±¯¯µŸ°¯Ÿ±¯±¯ Calculus II

Calculus II Final Exam


Completely document your work and your reasoning.

You will be graded on your documentation, your reasoning, and the correctness of your conclusions.

Except where the need for more precision dictates otherwise (e.g., in nuclear physics) all quantities may be rounded to three significant figures.  The generating program works in binary and often generates extraneous digits (e.g., 1.5001 for 1.5, 3.6999 for 3.7).

** Write clearly in dark pencil or ink, on one side of the paper only. **


function

general antiderivative

sin(ax)cos(bx)

1/(b^2-a^2) [ a cos(ax)sin(ax) - b sin(ax)cos(bx) ] + c

cos(ax)cos(bx) 1/(b^2-a^2) [ b cos(ax)sin(bx) - a sin(ax)cos(bx) ] + c
sin(ax)cos(bx) 1/(b^2-a^2) [ b sin(ax)sin(bx) + a cos(ax)cos(bx)] + c
p(x) e^(ax) 1/a p(x)e^(ax) - 1/a INTEGRAL(p'(x)e^(ax),x) + c
p(x) sin(ax) 1/a p(x)cos(ax) + 1/a INTEGRAL(p'(x)cos(ax),x) + c
p(x) cos(ax) 1/a p(x)sin(ax) - 1/a INTEGRAL(p'(x)sin(ax),x) + c
1/(sin(x))^m -1/(m-1) cos(x) / (sin(x))^(m-1) + (m-2)/(m-1) INTEGRAL(1/(sin(x))^(m-2), x) + c
1/sin(x) 1/2 ln | (cos(x)-1) / (cos(x) + 1) | + c
1/(cos(x))^m 1/(m-1) sin(x) / (cos(x))^(m-1) + (m-2)/(m-1)   INTEGRAL(1/(cos(x))^(m-2), x) + c
1/cos(x) 1/2 ln | (sin(x)-1) / (sin(x) + 1) | + c
(bx+c)/(x^2+x^2) b/s ln | x^2+x^2 | + c/a arctan(x/a) + c
(cx + d) / [ (x-a)(x-b) ] 1/(a-b) [ (ac + d) ln | x-a | - (bc+d) ln | x-b | ] + c
1 / `sqrt( x^2 +- a^2 ) ln | x + `sqr(x^2 +- a^2 | + c
`sqrt(a^2 +- x^2 ) 1/2 ( x `sqrt(a^2 +- x^2) + a^2 INTEGRAL(1/`sqrt(a^2 +- x^2 )  + c
`sqrt(x^2 - a^2) 1/2 ( x `sqrt(a^2 +- x^2) + a^2 INTEGRAL(1/`sqrt(a^2 +- x^2 )  + c

Test should be printed using Internet Explorer.  If printed from different browser check to be sure test items have not been cut off.  If items are cut off then print in Landscape Mode (choose File, Print, click on Properties and check the box next to Landscape, etc.). 

Name and Signature of Student _____________________________

Signed by Attendant, with Current Date and Time: ______________________

If picture ID has been matched with student and name as given above, Attendant please sign here:  _________

Instructions:

Directions for Student:

Test Problems:

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Problem Number 1

State the Increasing Function Theorem.  Using the Mean Value Theorem prove the Increasing Function Theorem.

 

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Problem Number 2

Find the indefinite integral of the function x^ 4 ln(x).

 

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Problem Number 3

Use a graph and symmetry arguments to explain why the integral of cos( 2 x) cos( 4 x), from x = -`pi to x = `pi, is zero.

 

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Problem Number 4

If the equations

model interaction between two species, then

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Problem Number 5

Assuming that k is constant, solve the differential equation dQ / dt = k Q.

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Problem Number 6

Determine whether the antiderivatives of e^( 9 x) / (1 + e^(2 * 9 x)) and sin( 9 x) / (1 + cos(2 * 9 x) ) are in fact different expressions of the same problem.  If so specify the problem; if not state why not.

 

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Problem Number 7

Sketch a graph of a continuous function f(x) which is linear from (0, 3) to ( 5, -2.001), then linear to ( 9, 6) and then again concave downward to ( 12, 5). Sketch a graph of its antiderivative F(x) for which F(0)= 3 and label the known points on this graph.

 

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Problem Number 8

A spherical container of radius 14 cm is filled with water to within 4.3 cm of its top.  Find the volume of the water.

 

 

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Problem Number 9

Sketch a graph representing the probability distribution of the velocities of the balls in a billiard ball model, assuming that the mean velocity is  4 .  Using your sketch estimate the most likely velocity to two significant figures.  Estimate also the probability that a random observation of a given ball will yield a velocity which rounds off to each of the following values:  2, 8 and 14.

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Problem Number 10

The rate at which water flows from a uniform cylinder is r(t) cm^3 / sec, where t is clock time in seconds.

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Problem Number 11

The table below represents the cross-sectional area perpendicular to an axis of a solid vs. position on the axis:

position (meters) 1.5 2 2.5 3
c.s. area (m^2) 1 3.2 1.8 2.2

Sketch a reasonable curve through the data points given in the table.   Estimate the volume of the solid using LEFT, RIGHT, TRAP and MID, using three intervals for each approximation.  Indicate the expected order of accuracy of your approximations, from least accurate to most.

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Problem Number 12

Prove whether the integral of f(t) = 1 / t^p, from t = 0 to t = 1, converges or diverges if p < 1.

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Problem Number 13

Antidifferentiate ( 3 x + 6) / (x^2 + 6 x - 27) with or without the use of tables.

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Problem Number 14

Find the Taylor polynomial of degree 4 for y = 7.94 cos( 3 x), expanding about x=0.

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Problem Number 15

Find the area between the x axis and the graph of the polynomial p(x) = ( x - 5) (x + 17)^2 (x - 1).

Your average score on the following assessment problems will replace your score on each the two of the preceding problems on which you score lowest.

Your performance on these problems will also count toward your grade.

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