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**Topological quasilinear spaces.**
*(English)*
Zbl 1254.46004

Summary: We introduce, in this work, the notion of topological quasilinear spaces as a generalization of the notion of normed quasilinear spaces defined by Aseev (1986). He introduced the concept of a quasilinear space including both classical linear spaces and also nonlinear spaces of subsets and multivalued mappings. Further, Aseev presented some basic quasilinear counterpart of linear functional analysis by introducing the notions of norm and bounded quasilinear operators and functionals. Our investigations show that translation may destroy the property of being a neighborhood of a set in topological quasilinear spaces in contrast to the situation in topological vector spaces. Thus, we prove that a topological quasilinear space may not satisfy the localization principle of topological vector spaces.

### MSC:

46A19 | Other “topological” linear spaces (convergence spaces, ranked spaces, spaces with a metric taking values in an ordered structure more general than \(\mathbb{R}\), etc.) |

46T99 | Nonlinear functional analysis |

### Keywords:

topological quasilinear space
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\textit{Y. Yılmaz} et al., Abstr. Appl. Anal. 2012, Article ID 951374, 10 p. (2012; Zbl 1254.46004)

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### References:

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