Difference between revisions of "Multivariable calculus"
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(expanded) |
(improved, added Hessian) |
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**[[curvilinear coordinates]] | **[[curvilinear coordinates]] | ||
*[[Maxima]] | *[[Maxima]] | ||
| − | **[[Lagrangian multiplier]] | + | **with constraints ([[Lagrangian multiplier]] and [[Hessian]]) |
| − | **[[ | + | **[[parametrization]] |
**related rates (e.g., filling volumes) | **related rates (e.g., filling volumes) | ||
*[[continuity]] | *[[continuity]] | ||
Revision as of 04:31, January 11, 2010
Multivariable calculus is a college-level topic of study that typically includes:
- Vector space
- equations of planes, finding lines perpendicular to planes
- dot product
- cross product
- Arc length, area and volume
- recognizing shapes of different functions
- area between curves
- volume of intersecting solids
- disk, circular ring and cylindrical shell formulas
- Vector fields
- gradient
- divergence
- curl
- line integral
- conservative field
- defined by line integral, contour integral, curl, and gradient
- surface integral
- isolating singularities
- Green's Theorem
- solving integrals split into separate expressions for dx and dy
- finding area enclosed by a contour
- Stoke's Theorem
- solving contour integrals when curl over capping surface can be found, and vice-versa
- Divergence Theorem
- solving volume integrals for divergence when enclosing surface integral can be found, and vice-versa
- multiple integrals
- substitution
- curvilinear coordinates
- Maxima
- with constraints (Lagrangian multiplier and Hessian)
- parametrization
- related rates (e.g., filling volumes)
- continuity
- limits
- differentiability
- L'Hopital's Rule
- partial derivatives
- Jacobian
- Power series