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

Calculus II Test 2


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
10-05-2001 16:44:21

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Instructions:

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Test Problems:

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Problem Number 1

A right triangle has its right angle at the origin.  Its leg along the x axis has length 46 cm and its leg along the y axis has length 5 cm.  At distance x from the y axis the density of the triangle is 1 / ( 1.8 + x) grams / cm^2.  Use a Riemann sum to represent the approximate mass of the triangle.  What is the precise mass?

 

 

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Problem Number 2

For a certain definite integral MID(10) = 93.64 and MID(30)= 91.94.  What is your best estimate of the exact value of the integral?

 

 

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Problem Number 3

Antidifferentiate ( 9 x + 10) / (x^2 + 4 x - 32) with or without the use of tables.

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Problem Number 4

Find the volume of the solid obtained by rotating the curve y = e^(- 1.2 x), between x = 0 and x = .77, about the line x = -1.301.

 

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Problem Number 5

Show that LEFT(n) = RIGHT(n) + (f(a) - f(b) ) `dx, and also that  TRAP(n) = LEFT(n) + RIGHT(n).

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Problem Number 6

Sketch a graph representing the probability distribution of the velocities of the balls in a billiard ball model, assuming that the mean velocity is 9.  Using your sketch construct a sketch for the cumulative distribution function.  Explain how to use your cumulative distribution graph to estimate the most likely velocity.

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Problem Number 7

Use Riemann Sums to obtain the integral required to solve the following, and evaluate the integral:  A tank is in the shape of an upright right circular cylinder with base diameter 9 meters and altitude 29 meters.  The tank originally contains a fluid with weight density 8000 Newtons / m^3, to a depth of 14.6 meters.  How much work will be required to pump all the fluid to the height of the top of the container?

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Problem Number 8

Prove whether the integral of  e^-( .3 x) cos^ 6 (x), from x = 1 to infinity, converges or diverges.

 

 

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Problem Number 9

State the Racetrack Principle, and use the Increasing Function Theorem to prove it.

 

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Problem Number 10

Antidifferentiate sin^ 10( 4 x) cos^ 8( 4 x) with or without the use of tables.