Slice hyperholomorphicity of the $S$-resolvent operators and boundary conditions
Francesco Mantovani

TL;DR
This paper investigates the analyticity properties of the $S$-resolvent operators within the quaternionic spectral theory framework, extending classical spectral concepts and exploring boundary conditions in slice hyperholomorphic contexts.
Contribution
It introduces new results on the analyticity of $S$-resolvent operators under boundary conditions, enriching the understanding of quaternionic spectral theory and its relation to classical spectra.
Findings
Analyticity of $S$-resolvent operators established under boundary conditions.
Extension of spectral theory concepts from complex to quaternionic and Clifford operators.
Deeper insights into the structure of the $S$-spectrum and its relation to classical spectral theory.
Abstract
The foundation of spectral theory on the -spectrum can be traced back to the quaternionic framework of quantum mechanics. The concept of -spectrum for quaternionic operators emerged as the natural spectrum in slice hyperholomorphic functional calculi, known as the -functional calculus and also utilized in the quaternionic spectral theorem. This spectral theory extends to Clifford operators. A key distinction from classical complex spectral theory lies in the definition of the -spectrum, which is second order in the operator , and in the -resolvent operators that turns out to be the product of two different operators. This study delves into the analyticity of the -resolvent operators under specified boundary conditions for the -spectral problem. The spectral theory on the -spectrum also provides deeper insights into classical spectral theory.
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Taxonomy
TopicsAlgebraic and Geometric Analysis · Holomorphic and Operator Theory · Advanced Operator Algebra Research
