In all DK related publications, it is required to acknowledge support of the FWF. The following naming convention must be used in all cases:
Austrian Science Fund (FWF): W1230
For example, you may include a sentence such as "The author acknowledges the support of the Austrian Science Fund (FWF): W1230." Please do not forget!
[39] | Oliver Ebner, Stochastic Aspects of Refinement Schemes on Metric Spaces, PhD thesis, TU Graz, (2012).
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[38] | Oliver Ebner, Convergence of iterative schemes in metric spaces, Proceedings of the American Mathematical Society, 141, 677-686, (2013).
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[37] | Florian Lehner, Random colorings and automorphism breaking in locally finite graphs, Combinatorics, Probability and Computing, 22(6), 885-909, (2013).
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[36] | Johannes Cuno, Wilfried Imrich and Florian Lehner, Distinguishing graphs with infinite motion and nonlinear growth, Ars Mathematica Contemporanea, 7(1), 201-213, (2014).
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[35] | Oliver Ebner, Stochastic aspects of nonlinear refinement schemes, SIAM Journal of Numerical Analysis, 52, 717-734, (2014).
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[34] | Wilfried Imrich, Rafał Kalinowski and Florian Lehner, Endomorphism breaking in graphs, Electronic Journal of Combinatorics, 21, P1.16, 13pp., (2014).
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[33] | Florian Lehner, On spanning tree packings of highly edge connected graphs, Journal of Combinatorial Theory, Series B, 105, 93-126, (2014).
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[32] | Florian Lehner, Symmetry breaking in graphs and groups, PhD thesis, Technische Universität Graz, (2014).
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[31] | Johannes Wallner, On convergent interpolatory subdivision schemes in Riemannian Geometry, Constructive Approximation, 40, 472-486, (2014).
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[30] | Florian Lehner and Rögnvaldur G. Möller, Local finiteness, distinguishing numbers, and Tucker's conjecture, Electronic Journal of Combinatorics, 22(4), P4.19,1-15, (2015).
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[29] | Tetiana Boiko, Johannes Cuno, Wilfried Imrich, Florian Lehner and Christiaan E. van de Woestijne, The Cartesian product of graphs with loops, Ars Mathematica Contemporanea, 11(1), 1-9, (2016).
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[28] | Wolfgang Carl, A Laplace Operator on Semi-Discrete Surfaces, Found. Comput. Math., 16(5), 1115–1150, (2016).
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[27] | Wolfgang Carl, Differential geometric aspects of semidiscrete surfaces, PhD thesis, Technische Universität Graz, (2016).
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[26] | Wolfgang Carl and Johannes Wallner, Variational Laplacians for semidiscrete surfaces, Advances in Computational Mathematics, 42(6), 1491–1509, (2016).
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[25] | Florian Lehner, Pursuit evasion on infinite graphs, Theoretical Computer Science, 655, Part A, 30-40, (2016).
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[24] | Florian Lehner, Distinguishing graphs with intermediate growth, Combinatorica, 36, 333-347, (2016).
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[23] | Caroline Moosmüller, $C^1$ Analysis of Hermite Subdivision Schemes on Manifolds, SIAM Journal on Numerical Analysis, 54(5), 3003–3031, (2016).
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[22] | Wolfgang Carl, On semidiscrete constant mean curvature surfaces and their associated families, Monatshefte für Mathematik, 182, 537-563, (2017).
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[21] | Caroline Moosmüller, Hermite subdivision on manifolds via parallel transport, Adv. Computat. Mathematics, 43, 1059-1074, (2017).
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[20] | Caroline Moosmüller, Smoothness analysis of linear and nonlinear Hermite subdivision schemes, PhD thesis, TU Graz, (2017).
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[19] | Leonardo Alese, Stefan Lendl and Paul Tabatabai, On Sequences covering all rainbow $k$-progressions, Journal of Combinatorics, 9(4), 739-745, (2018).
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[18] | Florian Lehner and Christoph Hofer-Temmel, Clique trees of infinite locally finite chordal graphs, Electronic Journal of Combinatorics, 25, (2018). (P2.9)
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[17] | Costanza Conti and Svenja Hüning, An algebraic approach to polynomial reproduction of Hermite subdivision schemes, Journal of Computational and Applied Mathematics, 349, 302-315, (2019).
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[16] | Svenja Hüning, Wilfried Imrich, Judith Kloas, Hannah Schreiber and Thomas Tucker, Distinguishing graphs of maximum valence 3, Electronic J. Combinatorics, 26, \#P4.36:1–26, (2019).
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[15] | Svenja Hüning, Geometric and algebraic analysis of subdivision processes, PhD thesis, TU Graz, (2019).
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[14] | Svenja Hüning and Johannes Wallner, Convergence of subdivision schemes on Riemannian manifolds with nonpositive sectional curvature, Adv. Comput. Math, 45, 1689-1709, (2019).
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[13] | Caroline Moosmüller and Nira Dyn, Increasing the smoothness of vector and Hermite subdivision schemes, IMA J. Num. Analysis, 39, 579-606, (2019).
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[12] | Leonardo Alese, Closing curves by rearranging arcs, (2020). (submitted)
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[11] | Leonardo Alese, Problems on Closed Curves, PhD thesis, TU Graz, (2020).
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[10] | Svenja Hüning, Polynomial reproduction of Hermite subdivision schemes of any order, Mathematics and Computers in Simulation, 176, 195-205, (2020).
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[9] | Johannes Wallner, Geometric subdivision and multiscale transforms, Chapter in Handbook of Variational Methods for Nonlinear Geometric Data (Philipp Grohs, Martin Holler, Andreas Weinmann, eds.), Springer, 121-152, (2020).
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[8] | Leonardo Alese, Propagation of curved folding: The folded annulus with multiple creases exists, Beiträge zur Algebra und Geometrie, (2021).
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[7] | Leonardo Alese, Affine subspaces of curvature functions from closed planar curves, Results in Mathematics, 76(2), 70:1-14, (2021).
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[6] | Caigui Jiang, Hui Wang, Victor Ceballos Inza, Felix Dellinger, Florian Rist, Johannes Wallner and Helmut Pottmann, Using isometries for computational design and fabrication, ACM Trans. Graph., 40(4), 42:1-12, (2021).
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[5] | Caroline Moosmüller, Svenja Hüning and Costanza Conti, Stirling numbers and Gregory coefficients for the factorization of Hermite subdivision operators, IMA J. Num. Analysis, 41, 2936–2961, (2021).
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[4] | Leonardo Alese, Propagation of curved folding: The folded annulus with multiple creases exists, Beiträge zur Algebra und Geometrie / Contributions to Algebra and Geometry, (2021).
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[3] | Felix Dellinger, Discrete isothermic nets based on checkerboard patterns, (2022).
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[2] | Svenja Hüning, Wilfried Imrich, Judith Kloas, Hannah Schreiber and Thomas Tucker, Distinguishing locally finite trees, Electronic J. Combinatorics, (2022). (to appear)
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[1] | Svenja Hüning and Johannes Wallner, Convergence analysis of subdivision processes on the sphere, IMA J. Num. Analysis, 42(1), 698-711, (2022).
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