tariff 发表于 2025-3-28 17:51:30
https://doi.org/10.1007/978-1-4939-2602-2ith respect to growing dimension . in comparison with deviations that are valid for the entire class of Lipschitz functions. These conditions involve derivatives of . of the second order, which may be considered both in the spherical and Euclidean setup.tattle 发表于 2025-3-28 20:27:27
Sums of Independent Random Variablesistance), and also discuss possible improved rates of approximation when replacing the normal law by corresponding Edgeworth corrections. The first section deals with moment based quantities for single random variablesDawdle 发表于 2025-3-29 00:59:39
Supremum and Infimum Convolutionsutions, whose advantage is that they do not require smoothness or even continuity of the functions. It is therefore not surprising that supremum- and infimum-convolution inequalities find a wide range of applications.Sedative 发表于 2025-3-29 06:43:48
http://reply.papertrans.cn/24/2349/234856/234856_44.pngGROVE 发表于 2025-3-29 08:45:27
http://reply.papertrans.cn/24/2349/234856/234856_45.pngmutineer 发表于 2025-3-29 11:48:58
http://reply.papertrans.cn/24/2349/234856/234856_46.png强有力 发表于 2025-3-29 19:01:54
http://reply.papertrans.cn/24/2349/234856/234856_47.pngOvulation 发表于 2025-3-29 23:06:24
Slow coherency and weak connections,istance), and also discuss possible improved rates of approximation when replacing the normal law by corresponding Edgeworth corrections. The first section deals with moment based quantities for single random variablesindoctrinate 发表于 2025-3-30 00:56:42
Singular perturbations and time-scales,utions, whose advantage is that they do not require smoothness or even continuity of the functions. It is therefore not surprising that supremum- and infimum-convolution inequalities find a wide range of applications.正式演说 发表于 2025-3-30 06:02:19
https://doi.org/10.1007/978-1-4939-2602-2ith respect to growing dimension . in comparison with deviations that are valid for the entire class of Lipschitz functions. These conditions involve derivatives of . of the second order, which may be considered both in the spherical and Euclidean setup.