2019
DOI: 10.1007/s00013-019-01412-8
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A note on the surjectivity of operators on vector bundles over discrete spaces

Abstract: In this note we give a short and self-contained proof for a criterion of Eidelheit on the solvability of linear equations in infinitely many variables. We use this criterion to study the surjectivity of magnetic Schrödinger operators on bundles over graphs.

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Cited by 2 publications
(1 citation statement)
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“…In general, solutions of the equation Hu=f do not need to exist. However, if H is a nonnegative Schrödinger operator on a connected, locally finite graph, then H is surjective as an operator from C(X) to C(X) [19, Theorem 2.2] (see also [5, 14]), where we have F(X)=C(X) for locally finite graphs. Using the results of the previous section, we show the existence of solutions of the above equation on not necessarily locally finite graphs under the assumption of the validity of a Rellich inequality.…”
Section: Application To Solutions Of the Equation Hu=fmentioning
confidence: 99%
“…In general, solutions of the equation Hu=f do not need to exist. However, if H is a nonnegative Schrödinger operator on a connected, locally finite graph, then H is surjective as an operator from C(X) to C(X) [19, Theorem 2.2] (see also [5, 14]), where we have F(X)=C(X) for locally finite graphs. Using the results of the previous section, we show the existence of solutions of the above equation on not necessarily locally finite graphs under the assumption of the validity of a Rellich inequality.…”
Section: Application To Solutions Of the Equation Hu=fmentioning
confidence: 99%