Akemann G, Bittner E, Phillips MJ, Shifrin L. A Wigner Surmise for Hermitian and Non-Hermitian Chiral Random Matrices. Phys.Rev.E. 2009;80(6):065201.We use the idea of a Wigner surmise to compute approximate distributions ofthe first eigenvalue in chiral Random Matrix Theory, for both real and complexeigenvalues. Testing against known results for zero and maximal non-Hermiticityin the microscopic large-N limit we find an excellent agreement, valid for asmall number of exact zero-eigenvalues. New compact expressions are derived forreal eigenvalues in the orthogonal and symplectic classes, and at intermediatenon-Hermiticity for the unitary and symplectic classes. Such individual Diraceigenvalue distributions are a useful tool in Lattice Gauge...
AbstractWigner's semi-circle law describes the eigenvalue distribution of certain large random Hermi...
We study the fluctuations of eigenvalues from a class of Wigner random matrices that genera...
We consider $N\times N$ Hermitian random matrices with i.i.d. entries. The matrix is normal...
We use the idea of a Wigner surmise to compute approximate distributions of the first eigenvalue in ...
These notes provide an introduction to the local semicircle law from random matrix theory, as well a...
Akemann G, Damgaard PH. Individual Eigenvalue Distributions of Chiral Random Two-Matrix Theory and t...
We consider N × N Hermitian randommatrices with independent identically distributed entries (Wigner ...
We consider N × N Hermitian random matrices with independent identically distributed entries (Wigner...
Akemann G, Nagao T. Random Matrix Theory for the Hermitian Wilson Dirac Operator and the chGUE-GUE T...
This is a brief survey of some of the important results in the study of the eigenvalues and the eige...
We consider N×N Hermitian random matrices with i.i.d. entries. The matrix is normalized so that the ...
We demonstrate the occurrence of the well-known Wigner distribution for density of states, which ari...
We consider N × N random matrices of the form H = W + V where W is a real symmetric Wigner matrix an...
Akemann G. Random Matrix Theory and Quantum Chromodynamics. In: Schehr G, Altland A, Fyodorov YV, O'...
Abstract. This work is concerned with finite range bounds on the variance of individual eigenvalues ...
AbstractWigner's semi-circle law describes the eigenvalue distribution of certain large random Hermi...
We study the fluctuations of eigenvalues from a class of Wigner random matrices that genera...
We consider $N\times N$ Hermitian random matrices with i.i.d. entries. The matrix is normal...
We use the idea of a Wigner surmise to compute approximate distributions of the first eigenvalue in ...
These notes provide an introduction to the local semicircle law from random matrix theory, as well a...
Akemann G, Damgaard PH. Individual Eigenvalue Distributions of Chiral Random Two-Matrix Theory and t...
We consider N × N Hermitian randommatrices with independent identically distributed entries (Wigner ...
We consider N × N Hermitian random matrices with independent identically distributed entries (Wigner...
Akemann G, Nagao T. Random Matrix Theory for the Hermitian Wilson Dirac Operator and the chGUE-GUE T...
This is a brief survey of some of the important results in the study of the eigenvalues and the eige...
We consider N×N Hermitian random matrices with i.i.d. entries. The matrix is normalized so that the ...
We demonstrate the occurrence of the well-known Wigner distribution for density of states, which ari...
We consider N × N random matrices of the form H = W + V where W is a real symmetric Wigner matrix an...
Akemann G. Random Matrix Theory and Quantum Chromodynamics. In: Schehr G, Altland A, Fyodorov YV, O'...
Abstract. This work is concerned with finite range bounds on the variance of individual eigenvalues ...
AbstractWigner's semi-circle law describes the eigenvalue distribution of certain large random Hermi...
We study the fluctuations of eigenvalues from a class of Wigner random matrices that genera...
We consider $N\times N$ Hermitian random matrices with i.i.d. entries. The matrix is normal...