Methods 2 Notes 2 Flashcards
(2D-N41-) Closed curve
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(2E-N41-2.2) The length of a curve C , parametrized by r : (a, b) 7to Rd is given by
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(2E-N42-2.3) Find the length of the curve C defined by r : [0,4pi] to R3, with r(t) := 2/3 t^1.5 i + cos(t)j + sin(t)k
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(2E-N43-2.4) Let C be the right half of the circle x2 + y2 = 16. Evaluate integral xy^4 dr over c
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(2D-N44-2.5) Line integral (or path integral) of a vector field F over a curve C. 5 different ways to write this
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(2E-N45-2.6) Let F (x, y) := yi + xyj and the curve C be given by r(t) := cos(t)i + sin(t)j for t between or equal to 0 and pi. We want to compute the line integral of F along C. Do this two ways
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(2T-N46-) Properties of line integrals
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(2R-N47-) Explain path independence
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“(2E-N47-2.9) Con- sider the vector field F(x,y,z) = yi + xj. Fix any two points (a,b,c) and (d,e,f) in space and connect these two points with any piecewise smooth curve C. Let r(t) =
x(t)I + y(t)j + z(t)k be a parameterization of this curve so that r(0) = (a, b, c) and
r(p) = (d,e,f) for some positive real number p.”
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(2R-N48-) If line integral over c is path independent, line integral over any closed curve is 0!
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(2L-N48-2.10) If line integral over a closed path c is not 0, integral over c is not path independent. Plus useful note
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(2R-N48-) Forumla for evaulataing double integral. Give type of function and nature of region as well
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(2E-N49-2.10) Region -1 <= x <= 1, x^2 -1 <= y <= x^2 + 1. Let f from R^2 to R be defined by f(x,y) = 1
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(2E-N49-2.11) Region 0 <= y <=1, 0 <= x <= -y +1. Let f from R^2 to R be defined by f(x,y) = xy^2
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(2D-N51-) Jacobian, what is it for 2d, 3d, when use it
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