Regularly ordered

In mathematics, specifically in order theory and functional analysis, an ordered vector space X {\displaystyle X} is said to be regularly ordered and its order is called regular if X {\displaystyle X} is Archimedean ordered and the order dual of X {\displaystyle X} distinguishes points in X {\displaystyle X} .[1] Being a regularly ordered vector space is an important property in the theory of topological vector lattices.

Examples

Every ordered locally convex space is regularly ordered.[2] The canonical orderings of subspaces, products, and direct sums of regularly ordered vector spaces are again regularly ordered.[2]

Properties

If X {\displaystyle X} is a regularly ordered vector lattice then the order topology on X {\displaystyle X} is the finest topology on X {\displaystyle X} making X {\displaystyle X} into a locally convex topological vector lattice.[3]

See also

  • Vector lattice – Partially ordered vector space, ordered as a latticePages displaying short descriptions of redirect targets

References

  1. ^ Schaefer & Wolff 1999, pp. 204–214.
  2. ^ a b Schaefer & Wolff 1999, pp. 222–225.
  3. ^ Schaefer & Wolff 1999, pp. 234–242.

Bibliography

  • Narici, Lawrence; Beckenstein, Edward (2011). Topological Vector Spaces. Pure and applied mathematics (Second ed.). Boca Raton, FL: CRC Press. ISBN 978-1584888666. OCLC 144216834.
  • Schaefer, Helmut H.; Wolff, Manfred P. (1999). Topological Vector Spaces. GTM. Vol. 8 (Second ed.). New York, NY: Springer New York Imprint Springer. ISBN 978-1-4612-7155-0. OCLC 840278135.
  • v
  • t
  • e
Basic concepts
  • Ordered vector space
  • Partially ordered space
  • Riesz space
  • Order topology
  • Order unit
  • Positive linear operator
  • Topological vector lattice
  • Vector lattice
Types of orders/spacesTypes of elements/subsetsTopologies/Convergence
Operators
Main results