UFUta Renata Freiberg
Uta Renata Freiberg
*This is an algorithmically generated author record based on publicly available information.
Uta Renata Freiberg has a total of 2 co-authors. Here are the top co-authors by number of shared publications:
- Jörg‐Uwe Löbus
Department of Mathematical Sciences, University of Delaware, 501 Ewing Hall, Newark, DE 19716-2553, USA
1 shared publication - Maria Rosaria Lancia
Dipartimento di Scienze di Base e Applicate per l'Ingegneria Sapienza Università di Roma Via Antonio Scarpa 16 00161 Roma Italy
1 shared publication
Latest Publications
- 17 June 2010
- Published by Springer Nature
- p. 267-282
Some Remarks on the Hausdorff and Spectral Dimension of V-Variable Nested Fractals
- 17 June 2010
- Published by Springer Nature
- p. 267-282
Some Remarks on the Hausdorff and Spectral Dimension of V-Variable Nested Fractals
- 29 December 2005
- Published by Springer Nature
- Vol. 63, 267-277
Energy Forms on Non Self-similar Fractals
- 29 December 2005
- Published by Springer Nature
- Vol. 63, 267-277
Energy Forms on Non Self-similar Fractals
- 1 December 2005
- Published by Springer Nature in Meccanica
- Vol. 40 (4-6) , 419-436
Analysis on Fractal Objects
- 1 December 2005
- Published by Springer Nature in Meccanica
- Vol. 40 (4-6) , 419-436
Analysis on Fractal Objects
- 8 January 2004
- Published by Wiley in Mathematische Nachrichten
- Vol. 265 (1) , 3-14
Zeros of eigenfunctions of a class of generalized second order differential operators on the Cantor set
Generalized second order differential operators of the form $ {d \over {d \mu}} {d \over {dx}} $ when μ is a selfsimilar measure whose support is the classical Cantor set are considered. The asymptotic distribution of the zeros of the eigenfunctions is determined.- 8 January 2004
- Published by Wiley in Mathematische Nachrichten
- Vol. 265 (1) , 3-14
Zeros of eigenfunctions of a class of generalized second order differential operators on the Cantor set
Generalized second order differential operators of the form $ {d \over {d \mu}} {d \over {dx}} $ when μ is a selfsimilar measure whose support is the classical Cantor set are considered. The asymptotic distribution of the zeros of the eigenfunctions is determined.- 21 October 2003
- Published by Wiley in Mathematische Nachrichten
- Vol. 260 (1) , 34-47
Analytical properties of measure geometric Krein‐Feller‐operators on the real line
We investigate analytical properties of a measure geometric Laplacian which is given as the second derivative $ {d \over {d \mu}} {d \over {d \nu}} $ w.r.t. two atomless finite Borel measures μ and ν with compact supports supp μ ⊂ supp ν on the real line. This class of operators includes a generalization of the well‐known Sturm‐Liouville operator $ {d \over {d \mu}} {d \over {dx}} $ as well as of the measure geometric Laplacian given by $ {d \over {d \mu}} {d \over {d \mu}} $. We obtain for this differential operator under both Dirichlet and Neumann boundary conditions similar properties as known in the classical Lebesgue case for the euclidean Laplacian like Gauß‐Green‐formula, inversion formula, compactness of the resolvent and its kernel representation w.r.t. the corresponding Green function. Finally we prove nuclearity of the resolvent and give two representations of its trace.- 21 October 2003
- Published by Wiley in Mathematische Nachrichten
- Vol. 260 (1) , 34-47
Analytical properties of measure geometric Krein‐Feller‐operators on the real line
We investigate analytical properties of a measure geometric Laplacian which is given as the second derivative $ {d \over {d \mu}} {d \over {d \nu}} $ w.r.t. two atomless finite Borel measures μ and ν with compact supports supp μ ⊂ supp ν on the real line. This class of operators includes a generalization of the well‐known Sturm‐Liouville operator $ {d \over {d \mu}} {d \over {dx}} $ as well as of the measure geometric Laplacian given by $ {d \over {d \mu}} {d \over {d \mu}} $. We obtain for this differential operator under both Dirichlet and Neumann boundary conditions similar properties as known in the classical Lebesgue case for the euclidean Laplacian like Gauß‐Green‐formula, inversion formula, compactness of the resolvent and its kernel representation w.r.t. the corresponding Green function. Finally we prove nuclearity of the resolvent and give two representations of its trace.