Global analysis, analysis on manifolds Concept
Lie bracket of vector fields
Summary
The Lie bracket of two vector fields and on a smooth manifold is a third vector field . It measures how much the flows of and fail to commute. It is zero exactly when, for short times, moving along then gives the same result as moving along then . With this bracket the vector fields on a manifold form a Lie algebra. It appears in the Frobenius theorem, in the definition of curvature and torsion, and in control theory.
Where this leads
24 pages build on this one.
- Left-invariant vector field
- Frobenius theorem
- Riemann curvature tensor
- Kohn–Rossi cohomology
- CR manifold
- Nijenhuis tensor
- Feedback linearization
- Pfaffian system
- Affine connection
- Schouten–Nijenhuis bracket
- Hermitian manifold
- Sub-Riemannian manifold
- Almost complex manifold
- Lie's theorems on transformation groups
- Levi-Civita connection
- Hörmander's condition
- Torsion tensor
- Newlander–Nirenberg theorem
- Chow–Rashevskii theorem
- Contact manifold
- Frölicher–Nijenhuis bracket
- Sub-Riemannian geodesic problem
- Cartan–Kähler theorem
- Lie derivative
Further reading
About this page
| Tag | 68FGQEBD6J |
|---|---|
| URI | m2://68FGQEBD6J |
| Kind | concept |
| Writing | W0 stub |
| MSC | 58A05, 53A45, 17B66 |
| Same as |
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Used by
- Left-invariant vector field
- Frobenius theorem
- Riemann curvature tensor
- Kohn–Rossi cohomology
- CR manifold
- Nijenhuis tensor
- Feedback linearization
- Affine connection
- Schouten–Nijenhuis bracket
- Sub-Riemannian manifold
- Almost complex manifold
- Lie's theorems on transformation groups
- Levi-Civita connection
- Hörmander's condition
- Torsion tensor
- Newlander–Nirenberg theorem
- Chow–Rashevskii theorem
- Frölicher–Nijenhuis bracket
- Lie derivative