## Abstract We introduce a notion of __q__ ‐pseudoconvex domain of new type for a bounded domain of ℂ^__n__^ and prove that for given a $ \bar \partial $‐closed (__p, r__)‐form, __r__ ≥ __q__, that is smooth up to the boundary, there exists a (__p__, __r__ – 1)‐form smooth up to the boundary which
Uniform Estimates for the ∂-Equation on Pseudoconvex Polyhedra on Stein Manifolds
✍ Scribed by Dieter Heunemann
- Publisher
- John Wiley and Sons
- Year
- 1983
- Tongue
- English
- Weight
- 285 KB
- Volume
- 114
- Category
- Article
- ISSN
- 0025-584X
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✦ Synopsis
Uniform estimates for the &equation on strictly pseudoconvex smooth domains in Cn were obtained in 1969/70 by G R A U E R T ~E B [2], HENKIN Ell], KERZW [5], [0], ~E B 171, and OVRELID [8]. RANGE and Sm generalized these results to p i e c e h e smooth strictly paeudoconvex domains. HENKIN proved uniform estimates a180 for non-degenerated WEIL polyhedra [ 121, [ 131. HENKIN and SERGEJEV [ 101 obtained such estimates for a certain class of so-called pseudoconvex polyhedra which contains the eaaes mentioned above. In all these papers global integral formulas for solving the &equation are used. HENKIN and LEITERER [a] generalized these formulas to STEIN manifolds. This makes it possible to obtain uniform estimates for WE= polyhedra on STEIN manifolds. Earlier it was shown by KERZW [6], [6] that on strictly pseudoconvex smooth domains on STEIN manifolds uniform and HOLDER estimate for the &equation can be obtained by localization.
In the present paper we get uniform estimates for the &equation on pseudoconvex polyhedra on STEIN manifolds by direct reduction to the ease of subdomains in C". We prove that every paeudoconvex polyhedron on a STEIN manifold M is a holomorphic retraction of some pseudoconvex polyhedron D' c C". For the exact formulation see Lemma 1, Lemma 2, Lemma 3.
📜 SIMILAR VOLUMES
## Abstract We consider the Bergman projection on Henkin–Leiterer domains, bounded strictly pseudoconvex domains which have defining functions whose gradient is allowed to vanish. Our result describes the mapping properties of the Bergman projection between weighted __L^p^__ spaces, with the weight
## Abstract The aim of this work is to consider the Korteweg–de Vries equation in a finite interval with a very weak localized dissipation namely the __H__^−1^‐norm. Our main result says that the total energy decays locally uniform at an exponential rate. Our analysis improves earlier works on the