A Bound on Tail Probabilities for Quadratic Forms in Independent Random Variables
By D. L. Hanson, F. T. Wright. 1971
Subfields: Statistics and Probability
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Citations in the corpus
- Generalized Results for the Existence and Consistency of the MLE in the Bradley-Terry-Luce Model (2021, methodology): “Using the Hanson-Wright inequality (Hanson & Wright, 1971) as in the proof of Theorem 1 of (Shah et al., 2016), we obtain that with probability at least 1 − e − t .”
- Paved with Good Intentions: Analysis of a Randomized Block Kaczmarz Method (2012, background): “bability. 12 DEANNA NEEDELL AND JOEL A. TROPP We do not have a reference for Proposition 3.7, but the result is probably not new. Appendix A offers a short proof based on the Hanson–Wright inequality [HW71] for Rademacher chaos. Let us pause to examine the hypothesis (3.1). Recall that, for a standa”
- Estimates of moments and tails of Gaussian chaoses (2005, unknown): “For d= 1, we have Bα(x,W {x} d (α,4t)) = {y ∈R1 :α(x− y)≤ 4tEα(Gn1)} and (6) then follows by Lemma 1.”
- Random matrices: Universality of local spectral statistics of non-Hermitian matrices (2012, methodology): “At this point we will follow [19] and invoke a concentration estimate for quadratic forms essentially due to Hanson and Wright [29], [64].”
- On the consistent separation of scale and variance for Gaussian random fields (2009, methodology): “The Hanson and Wright bound in [17] gives”
- Hanson-Wright inequality and sub-gaussian concentration (2013, unknown): “28 72 v3 [ m at h. PR ] 1 O ct 2 01 3”
- Concentration inequalities for non-Lipschitz functions with bounded derivatives of higher order (2013, methodology): “Such bounds for random quadratic forms in independent symmetric random variables with log-concave tails have been obtained by Latała [43] (the case of linear forms was solved earlier by Gluskin and Kwapień [29], whereas bounds for quadratic forms in Gaussian variables were obtained by Hanson-Wright”
- Sub-Gaussian estimators of the mean of a random vector (2017, background): “…Σ , then the sample mean µ N is also multivariate normal with mean µ and covariance matrix (1 /N ) Σ and therefore, for δ ∈ (0 , 1), with probability at least 1 − δ , (cid:13)(cid:13)(cid:13) (cid:13)(cid:13)(cid:13) where λ max denotes the largest eigenvalue of Σ (see Hanson and Wright [7]).”
- A note on the Hanson-Wright inequality for random vectors with dependencies (2014, background): “Our second result concerns a uniform version of the Hanson-Wright inequality for suprema of quadratic forms and is contained in the following Theorem 2.4.”
- A modern maximum-likelihood theory for high-dimensional logistic regression (2018, methodology): “Applying the Hanson-Wright inequality [51,84] and the Sherman-Morrison-Woodbury formula (e.”
- Robust dimension free isoperimetry in Gaussian space (2012, background): “9 from the result stated in [12], simply note that the operator norm is bounded by the Frobenius norm.”
- Concentration inequalities for polynomials in α-sub-exponential random variables (2019, background): “Indeed, the Hanson–Wright inequality (see [14], [35], [29]) states that for a quadratic form in independent, centered sub-Gaussian random variables X1, .”
- Universality of random matrices and local relaxation flow (2009, background): “Proposition C.2 (See [ 21 , 31]) Let bj , j = 1, 2 ,...,N be a sequence of real i.i.d.”