RATES OF CONVERGENCE FOR EMPIRICAL PROCESSES OF STATIONARY MIXING SEQUENCES
By Bin Yu. 1994
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Sergey Levine
- Yoshua Bengio
- Percy Liang
- Dacheng Tao
- Ruslan Salakhutdinov
- Pieter Abbeel
- Trevor Darrell
- Quoc V. Le
Citations in the corpus
- Rates of uniform convergence of empirical means with mixing processes (2002, background): “The above bound may be compared with the bounds derived by Yu (1994), especially Eq.”
- Inference on Causal and Structural Parameters using Many Moment Inequalities (2013, unknown): “/3{1 ∨log(p/∆)b}2/3, where ∆ = maxb 1≤j,k≤p |(1/(mq)) Pm l=1(SljSlk −E[SljSlk])|. Hence it suffices to prove that P(∆b>C′n−c′ log−2 p) ≤ Cn−c + (m− 1)b r with suitable c,c′,C,C′. By Corollary 2.7 in Yu (1994), for every t>0, P(∆b>t) ≤ P(∆e>t)+(m−1)br, where∆ = maxe 1≤j,k≤p |(1/(mq)) Pm l=1”
- Uniform convergence of Vapnik–Chervonenkis classes under ergodic sampling (2010, background): “Yu [27] extends these results to β-mixing (absolutely regular) processes X and and classes F satisfying metric entropy conditions.”
- Learning Without Mixing: Towards A Sharp Analysis of Linear System Identification (2018, methodology): “The most well-established technique in the statistics literature for dealing with non-independent, time-series data is the use of mixing-time arguments [Yu, 1994].”
- Learning from Limited Demonstrations (2013, background): “In the vehicle brake control simulation [21], the agent’s goal is reach a target velocity, then maintain that target.”
- Of Copulas, Quantiles, Ranks and Spectra - An L1-Approach to Spectral Analysis (2011, methodology): “11) In this proof, we use a blocking argument by Yu [42] – call it the independent blocks argument.”
- Statistical linear estimation with penalized estimators: an application to reinforcement learning (2012, background): “This can be arranged for example if the features φi(Xt) and rewards Rt+1 are a.s. bounded, and if we assume appropriate mixing, such as exponential β-mixing (Yu, 1994), or when the Markov chain (Xt)t≥0 forgets its past sufficiently rapidly (Samson, 2000).”
- Estimation and Inference about Heterogeneous Treatment Effects in High-Dimensional Dynamic Panels. (2017, background): “nductive hypothesis. The bound iiifollows from Lemma 7.8 with n= Nand i= ( X i1;X i2;:::;X (L 1)) ( X iL) and i= ( X i1;X i2;:::;X iL), and Condition (7.20). Lemma 7.10 (Extension of Lemma 2.6 from Yu (1994)). Let Q i:= ( X i1;X i2;:::;X iL);i2 f1;2;:::;Ngwith marginals Q il;1 6 l6 L. Suppose for so”
- Rademacher Complexity Bounds for Non-I.I.D. Processes (2008, methodology): “analyses [7, 9, 10, 15], we use a technique transferring the original problem based on dependent points to one based on a sequence of independent blocks .”
- Testing Many Moment Inequalities (2013, unknown): “7 in Yu (1994), for every t > 0, P(∆̂ > t) ≤ P(∆̃ > t) + (m− 1)br, where ∆̃ = max1≤j,k≤p |(1/(mq)) ∑m l=1(S̃ljS̃lk−E[SljSlk])| (recall that S̃l, 1 ≤ l ≤ m, are independent with S̃l d = Sl).”
- Quantile spectral analysis for locally stationary time series (2014, methodology): “The existence of such a sequence and the measurability issues that arise are addressed in Yu (1994). The Γ- and ∆-block subsequences are denoted by XΓ, YΓ, X∆ and Y∆, respectively: for instance, XΓ := X(Γ1), X(Γ2), . . . , X(Γμn). We obtain XΓ by leaving out every other block in the original sequenc”
- Time series prediction and online learning (2016, background): “Keywords: time series prediction, on-line learning, generalization bounds, regret minimization, validation, model selection, ensembles, stability, non-stationary, non-mixing.”
- Regularization in reinforcement learning (2011, methodology): “process to more general mixing processes [Doukhan, 1994; Yu, 1994].”
- Modelling multivariate volatilities via conditionally uncorrelated components (2008, background): “Under the additional condition E|XtiXtj|2p ∞ and the mixing condition that is given in condition (d), theorem 1 of Arcones and Yu (1994) implies that the set of functions {XtiXtj I.Xt−k ∈ B/, B ∈B} is Conditionally Uncorrelated Components 701 a Donsker class, and hence the process {Δn,k.”
- Fitted Q-iteration in continuous action-space MDPs (2007, methodology): “, ZN ∈ Z is a stationary β-mixing process with mixing coefficients {βm}, Z ′ t ∈ Z (t ∈ H) are the block-independent “ghost” samples as done by [23], H = { 2ikN + j : 0 ≤ i < mN , 1 ≤ j ≤ kN } and F is a permissible class of Z → [−K, K] functions.”
- Finite-sample analysis of least-squares policy iteration (2012, methodology): “Proposition 15 (Yu, 1994) Let X1, .”