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Traits dedicated to linear algebra.
Traits§
- A set points associated with a vector space and a transitive and free additive group action (the translation).
- The group of affine transformations. They are decomposable into a rotation, a non-uniform scaling, a second rotation, and a translation (applied in that order).
- Subgroups of the orientation-preserving isometry group
SE(n)
, i.e., rotations and translations. - The finite-dimensional affine space based on the field of reals.
- A finite-dimensional vector space equipped with an inner product that must coincide with the dot product.
- A finite-dimensional vector space.
- A vector space equipped with an inner product.
- The group of inversible matrix. Commonly known as the General Linear group
GL(n)
by algebraists. - Subgroups of the isometry group
E(n)
, i.e., rotations, reflexions, and translations. - The space of all matrices.
- The space of all matrices that are stable under modifications of its components, rows and columns.
- A normed vector space.
- Subgroups of the n-dimensional rotations and scaling
O(n)
. - The most general form of invertible transformations on an euclidean space.
- Subgroups of the n-dimensional rotation group
SO(n)
. - Subgroups of the (signed) uniform scaling group.
- Subgroups of the similarity group
S(n)
, i.e., rotations, translations, and (signed) uniform scaling. - The monoid of all square matrices, including non-inversible ones.
- The monoid of all mutable square matrices that are stable under modification of its diagonal.
- A general transformation acting on an euclidean space. It may not be inversible.
- Subgroups of the n-dimensional translation group
T(n)
. - A vector space has a module structure over a field instead of a ring.