Shahada ya kwanza (juu)AlgebraImepangwa
Advanced linear algebra
Inner product spaces and the spectral theorem, dual spaces, Jordan and rational canonical forms, multilinear algebra and tensor products of vector spaces.
math.algebra.advanced-linear-algebra
Somo la mada hii bado halijaandikwa. Muhtasari ulio hapa chini ni sehemu ya ramani ya mtaala na haujakaguliwa.
Inajengwa juu ya
Masharti ya awali ya lazima 22 (hadi chini kabisa)
Utajifunza
- Prove the spectral theorem for real symmetric and complex normal operators.
- Compute Jordan normal forms and minimal polynomials.
- Define dual spaces and tensor products by universal properties and compute with bases.
Fasili
- An inner product on a real vector space is a symmetric, positive-definite bilinear form.
- The dual space V* is the space of linear maps from V to the field k.
- The tensor product V ⊗ W comes with a bilinear map V × W → V ⊗ W through which every bilinear map out of V × W factors uniquely via a linear map.
Nadharia
- Spectral theorem: every real symmetric matrix is orthogonally diagonalisable.
- Over an algebraically closed field every square matrix is similar to a Jordan normal form, unique up to the order of the blocks.
- Cayley–Hamilton: a square matrix satisfies its own characteristic polynomial.
- dim(V ⊗ W) = dim V · dim W, and for finite-dimensional V the map V → V** is a natural isomorphism.
Mawazo potofu ya kawaida
- Thinking V ≅ V* canonically; such an isomorphism depends on a choice (of basis or inner product), whereas V ≅ V** is natural.
- Believing every element of V ⊗ W has the form v ⊗ w.
Inaelekea kwa
Ugunduzi wa hiari
- Natural transformations The isomorphism V → V** is natural in V while V ≅ V* is not; making this distinction precise was a motivation for Eilenberg and Mac Lane's definition of natural transformation.
- Monoidal categories Vector spaces with the tensor product form a symmetric monoidal category.
- ← The axiom of choice and its equivalents
Njia za kujifunza
Usomaji zaidi
- Sheldon Axler, Linear Algebra Done Right (1996)
- Paul R. Halmos, Finite-Dimensional Vector Spaces