Recent content by BilalX
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Double integral with cos(x^n) term
Great, thanks, I went back and realized I'd made a stupid mistake and somehow used a square root instead of the cubic root when changing the limits.- BilalX
- Post #4
- Forum: Calculus and Beyond Homework Help
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Double integral with cos(x^n) term
[SOLVED] Double integral with cos(x^n) term Homework Statement Solve the following integral (without using a series development): \displaystyle \int _{0}^{\frac{1}{8}}\int _{\sqrt[3]{y}}^{\frac{1}{2}}\cos\left(20{\pi}x}} ^{4}\right)dx dy Homework Equations N/A The Attempt at a...- BilalX
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- Double integral Integral Term
- Replies: 3
- Forum: Calculus and Beyond Homework Help
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MATLAB Extremely basic question for MATLAB's solve()
Hello, Although I recently had a MATLAB class it didn't really touch on variable types or use of the solve() function, and now I'm stumped on an embarrassingly basic problem; I'm trying to solve an equation in this form, with the other variables defined as doubles...- BilalX
- Thread
- Replies: 3
- Forum: MATLAB, Maple, Mathematica, LaTeX
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Parametric equation of the intersection between surfaces
Great, thank you.- BilalX
- Post #3
- Forum: Calculus and Beyond Homework Help
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Parametric equation of the intersection between surfaces
[SOLVED] Parametric equation of the intersection between surfaces Homework Statement Given the following surfaces: S: z = x^2 + y^2 T: z = 1 - y^2 Find a parametric equation of the curve representing the intersection of S and T. Homework Equations N/A The Attempt at a Solution The...- BilalX
- Thread
- Intersection Parametric Surfaces
- Replies: 2
- Forum: Calculus and Beyond Homework Help
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Graduate Vector equation of a spherical curve
Oh, right, I just didn't think of assuming a unit sphere centered at the origin - much easier now. And yeah, the curve just follows a spherical surface. Thanks- -
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Graduate Vector equation of a spherical curve
Given a curve described by the following function: r(t) = (cos^2(t), sin(t), sin(t)*cos(t)), 0 ≤ t ≤ 2*Pi How can I prove it describes a spherical shape? I know that the parametric representation is the following, but I'm not sure how to reconcile that with the expression of a sphere. x =...