Analysis of the limiting spectral distribution of large dimensional information-plus-noise type matrices
By R. Brent Dozier, J. Silverstein. 2007
86 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Statistics and Probability, Signal Processing
View Paper: https://www.semanticscholar.org/paper/0a928ef6592bef319ca031f7b0042cf0372cead5
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Charles Bordenave
- Djalil CHAFAÏ
- Pietro Caputo
- M. Capitaine
- Philippe Loubaton
- Romain Couillet
- Walid Hachem
- Pascal Vallet
In Statistics and Probability
- Charles Bordenave
- Djalil CHAFAÏ
- Romain Couillet
- M. Capitaine
- Pietro Caputo
- Philippe Loubaton
- Walid Hachem
- Pascal Vallet
In Signal Processing
- M. Capitaine
- Philippe Loubaton
- Romain Couillet
- Charles Bordenave
- Walid Hachem
- Pietro Caputo
- Pascal Vallet
- Djalil CHAFAÏ
Citations in the corpus
- Spectrum of Non-Hermitian Heavy Tailed Random Matrices (2010, background): “Following Dozier and Silverstein [16, 15], if F has finite positive variance σ2, then for every z ∈ C, there exists a probability measure Qσ,z on [0,∞) depending only on σ and z, with explicit Cauchy-Stieltjes transform, such that a.s. (almost surely) ν 1√ n X−zI n→∞ Qσ,z (1.1) where denotes the wea”
- Analysis of the limiting spectral measure of large random matrices of the separable covariance type (2013, methodology): “Parallelling the assumptions made in [15], [20] and [5], we restrict ourselves to the case where a = xI,Ĩ(δ̃a) for some δ̃a ∈ dom(xI,Ĩ).”
- Outlier Eigenvalues for Deformed I.I.D. Random Matrices (2014, methodology): “The characterization of the complement in R \ {0} of the support of μz established in [25] and Proposition 2.”
- Almost sure localization of the eigenvalues in a Gaussian information plus noise model - Application to the spiked models (2010, background): “It is shown in [13] that Re(1+σ(2)cN mN (z)) = 1+σ(2)(1− cN )G(z)+ Im(1+σ(2)cN mN (z))z2G(z) 1− g (z)+ z1G(z) , for z ∈C+.”