Publications

Refereed journal papers, preprints, and theses. The most up-to-date record is on the external archives below.

Selected publications

  1. Approximation of functions: optimal sampling and complexityActa Numericawith D. Krieg · Acta Numer. 35 (2026), 273–457 (invited survey)DOIarXiv:2602.02066
  2. Nonlocal techniques for the analysis of deep ReLU neural network approximationswith C. Schneider & J. Vybral · J. Mach. Learn. Res. 27:11 (2026), 1–41JMLRarXiv:2504.04847
  3. A sharp upper bound for sampling numbers in \(L_2\)with M. Dolbeault & D. Krieg · Appl. Comput. Harmon. Anal. 63 (2023), 113–134DOIarXiv:2204.12621
  4. Function values are enough for \(L_2\)-approximationwith D. Krieg · Found. Comput. Math. 21 (2021), 1141–1151DOIarXiv:1905.02516
  5. Random sections of ellipsoids and the power of random informationwith A. Hinrichs, D. Krieg, E. Novak & J. Prochno · Trans. Amer. Math. Soc. 374 (2021), 8691–8713DOIarXiv:1901.06639
  6. The curse of dimensionality for numerical integration on general domainsJ. Complexity Best Paper Awardwith A. Hinrichs & J. Prochno · J. Complexity 50 (2019), 25–42DOIarXiv:1804.03957
  7. Reproducing kernels of Sobolev spaces on \(\mathbb{R}^d\) and applications to embedding constants and tractabilitywith E. Novak, H. Woźniakowski & S. Zhang · Anal. Appl. 16 (2018), 693–715DOIarXiv:1709.02568
  8. A Monte Carlo method for integration of multivariate smooth functionsSIAM J. Numer. Anal. 55 (2017), 1188–1200DOIarXiv:1604.06008
  9. The curse of dimensionality for numerical integration of smooth functionswith A. Hinrichs, E. Novak & H. Woźniakowski · Math. Comp. 83 (2014), 2853–2863DOIarXiv:1211.0871
  10. Rapid mixing of Swendsen–Wang dynamics in two dimensionsDissertationes Math. 502 (2014), 64 pp.DOIarXiv:1212.4908

Submitted manuscripts & preprints

  1. On bounds between all s-numbers and widths of convex setssubmitted (2026)arXiv:2608.05024
  2. Constructive discretization and approximation in reproducing kernel Hilbert spaceswith A. Chkifa, M. Dolbeault & D. KriegarXiv:2602.18719
  3. How many continuous measurements are needed to learn a vector?with D. Krieg & E. NovakarXiv:2412.06468

Refereed journal papers

  1. Approximation of functions: optimal sampling and complexityActa Numericawith D. Krieg · Acta Numer. 35 (2026), 273–457 (invited survey)DOIarXiv:2602.02066
  2. Nonlocal techniques for the analysis of deep ReLU neural network approximationswith C. Schneider & J. Vybral · J. Mach. Learn. Res. 27:11 (2026), 1–41JMLRarXiv:2504.04847
  3. Sparse grids vs. random points for high-dimensional polynomial approximationwith J. Eggl & E. Mindlberger · Adv. Comput. Math. 52:3 (2026), 44DOIarXiv:2506.24054
  4. Noisy nonlinear information and entropy numberswith D. Krieg, E. Novak & L. Plaskota · J. Fourier Anal. Appl. 32:36 (2026)DOIarXiv:2510.23213
  5. Sampling and entropy numbers in the uniform normJ. Complexity 92 (2026), 101992DOIarXiv:2507.20770
  6. On the power of adaption and randomizationwith D. Krieg & E. Novak · Forum Math. Sigma 13 (2025), e152DOIarXiv:2406.07108
  7. Sampling projections in the uniform normwith D. Krieg, K. Pozharska & T. Ullrich · J. Math. Anal. Appl. 553:2 (2026), 129873DOIarXiv:2401.02220
  8. Sampling recovery in \(L_2\) and other normswith D. Krieg, K. Pozharska & T. Ullrich · Math. Comp. (2025, online)DOIarXiv:2305.07539
  9. Inequalities between s-numbersAdv. Oper. Theory 9:4 (2024), 82 (Special issue in memory of A. Pietsch)DOIarXiv:2405.05509
  10. On the power of iid information for linear approximationwith M. Sonnleitner · J. Appl. Numer. Anal. 1 (2023), 88–126 (invited survey)DOIarXiv:2310.12740
  11. Exponential tractability of \(L_2\)-approximation with function valueswith D. Krieg, P. Siedlecki & H. Woźniakowski · Adv. Comput. Math. 49:18 (2023)DOIarXiv:2205.04141
  12. A sharp upper bound for sampling numbers in \(L_2\)with M. Dolbeault & D. Krieg · Appl. Comput. Harmon. Anal. 63 (2023), 113–134DOIarXiv:2204.12621
  13. Deterministic constructions of high-dimensional sets with small dispersionwith J. Vybral · Algorithmica 84 (2022), 1897–1915DOIarXiv:1901.06702
  14. Function values are enough for \(L_2\)-approximation: Part IIwith D. Krieg · J. Complexity 66 (2021), 101569DOIarXiv:2011.01779
  15. On the worst-case error of least squares algorithms for \(L_2\)-approximation with high probabilityJ. Complexity 60 (2020), 101484DOIarXiv:2003.11947
  16. Function values are enough for \(L_2\)-approximationwith D. Krieg · Found. Comput. Math. 21 (2021), 1141–1151DOIarXiv:1905.02516
  17. Random sections of ellipsoids and the power of random informationwith A. Hinrichs, D. Krieg, E. Novak & J. Prochno · Trans. Amer. Math. Soc. 374 (2021), 8691–8713DOIarXiv:1901.06639
  18. On the power of random informationwith A. Hinrichs, D. Krieg, E. Novak & J. Prochno · in: Multivariate Algorithms and IBC, 43–64, De Gruyter (2020)DOIarXiv:1903.00681
  19. On the fixed volume discrepancy of the Fibonacci sets in the integral normswith V. N. Temlyakov · J. Complexity 61 (2020), 101472DOIarXiv:1908.04658
  20. Numerical performance of optimized Frolov lattices in tensor product reproducing kernel Sobolev spaceswith C. Kacwin, J. Oettershagen & T. Ullrich · Found. Comput. Math. 21 (2021), 849–889DOIarXiv:1802.08666
  21. On a multi-dimensional Poissonian pair correlation concept and uniform distributionwith A. Hinrichs, L. Kaltenböck, G. Larcher & W. Stockinger · Monatsh. Math. 190 (2019), 333–352DOIarXiv:1809.05672
  22. The minimal \(k\)-dispersion of point sets in high dimensionswith A. Hinrichs, J. Prochno & J. Vybral · J. Complexity 51 (2019), 68–78DOIarXiv:1807.01492
  23. A note on the dispersion of admissible latticesDiscrete Appl. Math. 257 (2019), 385–387DOIarXiv:1710.08694
  24. The curse of dimensionality for numerical integration on general domainsJ. Complexity Best Paper Awardwith A. Hinrichs & J. Prochno · J. Complexity 50 (2019), 25–42DOIarXiv:1804.03957
  25. Comparison of hit-and-run, slice sampling and random walk Metropoliswith D. Rudolf · J. Appl. Probab. 55 (2018), 1186–1202DOIarXiv:1505.00579
  26. Lattice rules with random \(n\) achieve nearly the optimal error independently of the dimensionwith P. Kritzer, F. Y. Kuo & D. Nuyens · J. Approx. Theory 240 (2019), 96–113DOIarXiv:1706.04502
  27. Digital net properties of a polynomial analogue of Frolov's constructionwith J. Dick, F. Pillichshammer, K. Suzuki & T. Yoshiki · Finite Fields Appl. 51 (2018), 325–350DOIarXiv:1712.06831
  28. Reproducing kernels of Sobolev spaces on \(\mathbb{R}^d\) and applications to embedding constants and tractabilitywith E. Novak, H. Woźniakowski & S. Zhang · Anal. Appl. 16 (2018), 693–715DOIarXiv:1709.02568
  29. An upper bound on the minimal dispersionwith J. Vybral · J. Complexity 45 (2018), 120–126DOIarXiv:1710.06754
  30. Lattice based integration algorithms: Kronecker sequences and rank-1 latticeswith J. Dick, F. Pillichshammer, K. Suzuki & T. Yoshiki · Ann. Mat. Pura Appl. 197 (2018), 109–126DOIarXiv:1608.08687
  31. A lower bound for the dispersion on the torusMath. Comput. Simulation 143 (2018), 186–190DOIarXiv:1510.04617
  32. A Monte Carlo method for integration of multivariate smooth functionsSIAM J. Numer. Anal. 55 (2017), 1188–1200DOIarXiv:1604.06008
  33. Product rules are optimal for numerical integration in classical smoothness spaceswith A. Hinrichs, E. Novak & H. Woźniakowski · J. Complexity 38 (2017), 39–49DOIarXiv:1604.00261
  34. Complexity of oscillatory integrals on the real linewith E. Novak, H. Woźniakowski & S. Zhang · Adv. Comput. Math. 43 (2017), 537–553DOIarXiv:1511.05414
  35. Change of variable in spaces of mixed smoothness and numerical integration on the unit cubewith V. K. Nguyen & T. Ullrich · Constr. Approx. 46 (2017), 69–108DOIarXiv:1511.02036
  36. The role of Frolov's cubature formula for functions with bounded mixed derivativewith T. Ullrich · SIAM J. Numer. Anal. 54 (2016), 969–993DOIarXiv:1503.08846
  37. On “Upper error bounds for quadrature formulas on function classes” by K. K. Frolovin: Monte Carlo and Quasi-Monte Carlo Methods, Springer Proc. Math. Stat. 163 (2016), 571–582DOIarXiv:1404.5457
  38. Complexity of oscillatory integration for univariate Sobolev spaceswith E. Novak & H. Woźniakowski · J. Complexity 31 (2014), 15–41DOIarXiv:1311.1528
  39. Rapid mixing of Swendsen–Wang dynamics in two dimensionsDissertationes Math. 502 (2014), 64 pp.DOIarXiv:1212.4908
  40. On weak tractability of the Clenshaw–Curtis Smolyak algorithmwith A. Hinrichs & E. Novak · J. Approx. Theory 183 (2014), 31–44DOIarXiv:1301.4055
  41. Structure and eigenvalues of heat-bath Markov chainswith M. Dyer & C. Greenhill · Linear Algebra Appl. 454 (2014), 57–71DOIarXiv:1309.0360
  42. The curse of dimensionality for numerical integration of smooth functions IIwith A. Hinrichs, E. Novak & H. Woźniakowski · J. Complexity 30 (2014), 117–143DOIarXiv:1304.3372
  43. The curse of dimensionality for numerical integration of smooth functionswith A. Hinrichs, E. Novak & H. Woźniakowski · Math. Comp. 83 (2014), 2853–2863DOIarXiv:1211.0871
  44. Swendsen–Wang is faster than single-bond dynamicsSIAM J. Discrete Math. 28 (2014), 37–48DOIarXiv:1201.5793
  45. Positivity of hit-and-run and related algorithmswith D. Rudolf · Electron. Commun. Probab. 18 (2013), no. 49, 1–8DOIarXiv:1212.4512
  46. Comparison of Swendsen–Wang and heat-bath dynamicsRandom Structures Algorithms 42 (2013), 520–535DOIarXiv:1105.3665
  47. Exact sampling for the Ising model at all temperaturesMonte Carlo Methods Appl., 223–233, De Gruyter (2013)arXiv:1012.3944

Theses

  1. Random vs. optimal data for high-dimensional approximationHabilitation thesis, JKU Linz, 2023
  2. Rapid mixing of Swendsen–Wang dynamics in two dimensionsPhD dissertation, FSU Jena, 2012
  3. Explicit error bounds and comparison of importance sampling and the Metropolis algorithmDiploma thesis (in German), FSU Jena, 2009