The set of Associated Homogeneous Distributions (AHDs) on R, H (R), consists of distributional analogues of power-log functions with domain in R. This set contains the majority of the (one-dimensional) distributions typically encountered in physics applications. In earlier work of the author it was
Multiplication product formula for associated homogeneous distributions on R
✍ Scribed by Ghislain R. Franssens
- Publisher
- John Wiley and Sons
- Year
- 2011
- Tongue
- English
- Weight
- 191 KB
- Volume
- 34
- Category
- Article
- ISSN
- 0170-4214
- DOI
- 10.1002/mma.1455
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✦ Synopsis
The set of associated homogeneous distributions (AHDs) on R, H (R), consists of the distributional analogues of powerlog functions with domain in R. This set contains the majority of the (one-dimensional) distributions one typically encounters in physics applications.
The recent work done by the author showed that the set H (R) admits a closed convolution structure (H (R), * ). By combining this structure with the generalized convolution theorem, a distributional multiplication product was defined, resulting in also a closed multiplication structure (H (R),.). In this paper, the general multiplication product formula for this structure is derived. Multiplication of AHDs on R is associative, except for critical triple products. These critical products are shown to be non-associative in a simple and interesting way. The non-associativity is necessary and sufficient to circumvent Schwartz's impossibility theorem on the multiplication of distributions.
📜 SIMILAR VOLUMES
An error was subsequently identified. Equation ( 48) in Corollary 5 should read as follows:
## Abstract Associated homogeneous distributions (AHDs) with support in the line **R** are the distributional generalizations of one‐dimensional power‐log functions. In this paper, we derive a number of practical structure theorems for AHDs based on **R** and being complex analytic with respect to
In particular, Ž . G 2 s q y 4 Ž  2 q 2 ␥q␥ 2 .