Aarhus Universitets segl

Absence of embedded eigenvalues for Riemannian Laplacians

Publikation: Working paper/Preprint Working paperForskning

Standard

Absence of embedded eigenvalues for Riemannian Laplacians. / Ito, Kenichi; Skibsted, Erik.

Department of Mathematics, Aarhus University, 2011.

Publikation: Working paper/Preprint Working paperForskning

Harvard

Ito, K & Skibsted, E 2011 'Absence of embedded eigenvalues for Riemannian Laplacians' Preprints, nr. 4, Department of Mathematics, Aarhus University.

APA

Ito, K., & Skibsted, E. (2011). Absence of embedded eigenvalues for Riemannian Laplacians. Department of Mathematics, Aarhus University. Preprints Nr. 4

CBE

Ito K, Skibsted E. 2011. Absence of embedded eigenvalues for Riemannian Laplacians. Department of Mathematics, Aarhus University.

MLA

Ito, Kenichi og Erik Skibsted Absence of embedded eigenvalues for Riemannian Laplacians. Department of Mathematics, Aarhus University. (Preprints; Journal nr. 4). 2011., 16 s.

Vancouver

Ito K, Skibsted E. Absence of embedded eigenvalues for Riemannian Laplacians. Department of Mathematics, Aarhus University. 2011 sep. 9.

Author

Ito, Kenichi ; Skibsted, Erik. / Absence of embedded eigenvalues for Riemannian Laplacians. Department of Mathematics, Aarhus University, 2011. (Preprints; Nr. 4).

Bibtex

@techreport{ff0472a1ff7646f99bb484ff29670bbe,
title = "Absence of embedded eigenvalues for Riemannian Laplacians",
abstract = "Schr{\"o}dinger operators on non-compact connected Riemannian manifolds. A principal example is given by a manifold with an end (possibly more than one) in which geodesic coordinates are naturally defined. In this case one of our geometric conditions is a positive lower bound of the second fundamental form of angular submanifolds at infinity inside the end. Another condition may be viewed (at least in a special case) as being a bound of the trace of this quantity, while similarly, a third one as being a bound of the derivative of this trace. In addition to geometric bounds we need conditions on the potential, a regularity property of the domain of the Schr{\"o}dinger operator and the unique continuation property. Examples include ends endowed with asymptotic Euclidean or hyperbolic metrics studied previously in the literature.",
author = "Kenichi Ito and Erik Skibsted",
year = "2011",
month = sep,
day = "9",
language = "English",
series = "Preprints",
publisher = "Department of Mathematics, Aarhus University",
number = "4",
type = "WorkingPaper",
institution = "Department of Mathematics, Aarhus University",

}

RIS

TY - UNPB

T1 - Absence of embedded eigenvalues for Riemannian Laplacians

AU - Ito, Kenichi

AU - Skibsted, Erik

PY - 2011/9/9

Y1 - 2011/9/9

N2 - Schrödinger operators on non-compact connected Riemannian manifolds. A principal example is given by a manifold with an end (possibly more than one) in which geodesic coordinates are naturally defined. In this case one of our geometric conditions is a positive lower bound of the second fundamental form of angular submanifolds at infinity inside the end. Another condition may be viewed (at least in a special case) as being a bound of the trace of this quantity, while similarly, a third one as being a bound of the derivative of this trace. In addition to geometric bounds we need conditions on the potential, a regularity property of the domain of the Schrödinger operator and the unique continuation property. Examples include ends endowed with asymptotic Euclidean or hyperbolic metrics studied previously in the literature.

AB - Schrödinger operators on non-compact connected Riemannian manifolds. A principal example is given by a manifold with an end (possibly more than one) in which geodesic coordinates are naturally defined. In this case one of our geometric conditions is a positive lower bound of the second fundamental form of angular submanifolds at infinity inside the end. Another condition may be viewed (at least in a special case) as being a bound of the trace of this quantity, while similarly, a third one as being a bound of the derivative of this trace. In addition to geometric bounds we need conditions on the potential, a regularity property of the domain of the Schrödinger operator and the unique continuation property. Examples include ends endowed with asymptotic Euclidean or hyperbolic metrics studied previously in the literature.

M3 - Working paper

T3 - Preprints

BT - Absence of embedded eigenvalues for Riemannian Laplacians

PB - Department of Mathematics, Aarhus University

ER -