By Stephen T. Lovett
Research of Multivariable features features from Rn to Rm Continuity, Limits, and Differentiability Differentiation ideas: features of sophistication Cr Inverse and Implicit functionality Theorems Coordinates, Frames, and Tensor Notation Curvilinear Coordinates relocating Frames in Physics relocating Frames and Matrix features Tensor Notation Differentiable Manifolds Definitions and Examples Differentiable Maps among Manifolds Read more...
summary: research of Multivariable capabilities services from Rn to Rm Continuity, Limits, and Differentiability Differentiation ideas: features of sophistication Cr Inverse and Implicit functionality Theorems Coordinates, Frames, and Tensor Notation Curvilinear Coordinates relocating Frames in Physics relocating Frames and Matrix features Tensor Notation Differentiable Manifolds Definitions and Examples Differentiable Maps among Manifolds Tangent areas and Differentials Immersions, Submersions, and Submanifolds bankruptcy precis research on Manifolds Vector Bundles on Manifolds Vector Fields on Manifolds Differential shape
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J(F )(q) = 0. ∂F ∂F (q), . . , ∂x (q)} is a linearly de3. The set of partial derivatives { ∂x 1 n pendent set of vectors. 4. The differential dFq is not invertible. 8. Finally, if n = m and both are greater than 1, determining for what values of q in the domain U the differential dFq does not have maximal rank is not easy if done simply by looking at the matrix of functions [dFq ]. The following proposition provides a concise criterion. 3. Let F : U → Rm be a function where U is an open subset of Rn , with n = m.
Calculate the partial derivatives Fx and Fy . Show that the Jacobian J(F ) is never 0. Conclude that Fx and Fy are never collinear. 12. Let F (u, v) = (cos u sin v, sin u sin v, cos v) be a function defined over [0, 2π] ×[0, π]. Show that the image of F lies on the unit sphere in R3 . Calculate dF(u,v) for all (u, v) in the domain. 13. Define F : R3 → R3 by F (u, v, w) = (u3 + uv) cos w, (u3 + uv) sin w, u2 . Calculate the partial derivatives Fx , Fy , and Fz . Calculate the Jacobian J(F ). Determine where F does not have maximal rank.
Calculate the differential, and determine where the differential does not have maximal rank. 17. 7. 18. 13. 19. Prove that if a function F is differentiable at a, then F is continuous at a. 20. Mean Value Theorem. Let F be a real-valued function defined over an open set U ∈ Rn and differentiable at every point of U . If the segment [a, b] ⊂ U , then there exists a point c in the segment [a, b] such that F (b) − F (a) = dFc (b − a). 21. (*) Let n ≤ m, and consider a function F : U → Rm of class C 1 , where U is an open set in Rn .