In this paper we consider functional equations of the form = α∈Z s a(α) (M•α), where = (φ 1 , . . . , φ r ) T is an r × 1 vector of functions on the s-dimensional Euclidean space, a(α), α ∈ Z s , is a finitely supported sequence of r × r complex matrices, and M is an s ×s isotropic integer matrix su
Completion of Schwartz Convergence Vector Spaces
✍ Scribed by Mikael Lindsteöm
- Publisher
- John Wiley and Sons
- Year
- 1985
- Tongue
- English
- Weight
- 385 KB
- Volume
- 122
- Category
- Article
- ISSN
- 0025-584X
No coin nor oath required. For personal study only.
✦ Synopsis
1. Definitions and introdiiction
In this note it is shown that the completion of a SCHWARTZ space E in the category of L,L, -embedded spaces is Iinearly homeomorphic with the eJf-bidual LAM E . The connection between LA,, -embedded SCHWARTZ spaces and topological SCHWARTZ spaces is also studied.
The terminology and notations in the present note are mainly the same as in f 3 . 1 0 ~ [2] and Lrwi)sva~~ar [7]. For the sake of convenience we recall same basic definitions and notationx. Let CLV denote the category of absolutely convex convergence vector spaces r~iicl continuous linec,r mappings and let K c denote the subcategory of equable, alsolutely conves convergence vector spaces [I], By L&=-Ebd ( a = e , Jf) we denote the subcategory of CLV whose objects are the LA,-embedded spaces, i.e. slmces E for which the canonical mapping j , : E -LJL,E into the hidual is a n emhedding in CLV [a]. Thereby the dual L,E ( a = e , N ) carries the local uniform convergence [8] or the canonical MARINESCU structure [GI and the second dual is endowed with local uniform convergence. The epireflective subcategory of LJ,,,-Ebd formed by all objects, which are separated locally convex topological vector spaces is denoted by LCTopV. The bornological spaces in LJa1-Ebd are characterized as the polar bornological spaces in the sense of HOGBE-NLEND [5]
endowed with NACKEY convergence for filters.
📜 SIMILAR VOLUMES
## Abstract By a __convenient vector space__ is meant a locally convex IR‐vector space which is separated, bornological and Mackey‐complete. The theory of such spaces, initiated in [Kr 82], [Fr 82], and [FGK 83], has evolved into a book [FK 88]. In the preliminaries below we outline the principal f