Coupling for τ-Dependent Sequences and Applications
By Jérôme Dedecker, Clémentine Prieur. 2004
122 citations recorded by the source corpus.
Subfields: Finance, Management Science and Operations Research, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/af8c0efc3281238fcb2d8a5cd07674616c41e04f
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Finance
- F. Merlevède
- Wei Biao Wu
- Magda Peligrad
- Michael H. Neumann
- István Berkes
- Siegfried Hormann
- E. Rio
- Paul Doukhan
In Management Science and Operations Research
- E. Rio
- F. Merlevède
- Wei Biao Wu
- Michael H. Neumann
- Magda Peligrad
- István Berkes
- Paul Doukhan
- Clémentine Prieur
In Mathematical Physics
- E. Rio
- Wei Biao Wu
- Michael H. Neumann
- F. Merlevède
- Magda Peligrad
- Jérôme Dedecker
- István Berkes
- Paul Doukhan
Citations in the corpus
- An exponential inequality under weak dependence (2006, methodology): “(ii) Dedecker and Prieur (2004) proved a Bennett inequality for weakly dependent random variables.”
- Split invariance principles for stationary processes. (2011, background): “Several conditions of this kind have been found, in particular by the French school, see [10], [11], [12], [15], [36], [37].”
- Asymptotic results for the empirical process of stationary sequences (2009, unknown): “…Processes and their Applications ( ) – 5 the new weak dependence measures, such as τ (M, X ) = F X |M (t) − F X (t) 1 dt α(M, X ) = sup t∈R F X |M (t) − F X (t) 1 β(M, X ) = sup t∈R F X |M (t) − F X (t) 1 φ(M, X ) = sup t∈R F X |M (t) − F X (t) ∞ (see Dedecker et al. [22] [23] [24], Rio [56] [57]).”
- STRONG INVARIANCE PRINCIPLES FOR DEPENDENT RANDOM VARIABLES (2007, background): “Motivated by the usefulness of such approximation scheme, researchers have established many results concerning mixingales and strongly mixing processes of various types; see Berkes and Philipp [4], Bradley [6], Eberlein [17], Shao [51], Rio [48], Lin and Lu [35], Dedecker and Prieur [13] and Philipp”
- Strong approximation for a class of stationary processes (2009, unknown): “For dependent random variables, see [2,3,9,26,23,17,22,7,6].”
- New dependence coefficients. Examples and applications to statistics (2005, methodology): “Then, using recent results of Rio (1996, 2000b), Collet et al. (2002) and Dedecker and Prieur (2003), we obtain a Berry-Esseen bound, a concentration inequality for Lipschitz functions, and a functional law of the iterated logarithm for partial sums.”
- Inequalities and limit theorems for weakly dependent sequences (2013, background): “We refer to Doukhan and Surgailis (1998), Louhichi (2000), Dehling, Durieu and Volný (2009) and Dedecker (2010) for other types of dependence.”
- Probability and moment inequalities for sums of weakly dependent random variables, with applications (2007, methodology): “A first exponential inequality was obtained in Doukhan and Louhichi (1999), a Bennett inequality in Dedecker and Prieur (2004), and a Bernstein-type inequality in Kallabis and Neumann (2006).”
- A Bernstein type inequality and moderate deviations for weakly dependent sequences (2009, background): “In order to cover a larger class of examples we shall also consider less restrictive coefficients of weak dependence, such as the τ -mixing coefficients defined in Dedecker and Prieur (2004) (see Section 2 for the definition of these coefficients).”
- Bernstein inequality and moderate deviations under strong mixing conditions (2012, background): “Corollary 5 Let (Xj)j�1 be as in Theorem 4. Suppose in addition that the sequence is L2 stationary and �2n ! 1. Then, limn!1 �2n=n = �2 > 0 and for all positive sequences an satisfying ( 10 ), (n 1=2Sn)n�1 satis…es (9) with the good rate function I(t) = t2=(2�2).”