Time and Date Stamps (logged): 17:12:20 06-10-2020 °¶Ÿ°±Ÿ±¯¯µŸ°¯Ÿ±¯±¯
** 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 |
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Problem Number 1A 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 2For 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 3Antidifferentiate ( 9 x + 10) / (x^2 + 4 x - 32) with or without the use of tables.
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Problem Number 4Find 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 5Show 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 6Sketch 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 7Use 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 8Prove whether the integral of e^-( .3 x) cos^ 6 (x), from x = 1 to infinity, converges or diverges.
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Problem Number 9State the Racetrack Principle, and use the Increasing Function Theorem to prove it.
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Problem Number 10Antidifferentiate sin^ 10( 4 x) cos^ 8( 4 x) with or without the use of tables.