Title :
Mean-Square Convergence Analysis of ADALINE Training With Minimum Error Entropy Criterion
Author :
Chen, Badong ; Zhu, Yu ; Hu, Jinchun
Author_Institution :
Dept. of Precision Instrum. & Mechanology, Tsinghua Univ., Beijing, China
fDate :
7/1/2010 12:00:00 AM
Abstract :
Recently, the minimum error entropy (MEE) criterion has been used as an information theoretic alternative to traditional mean-square error criterion in supervised learning systems. MEE yields nonquadratic, nonconvex performance surface even for adaptive linear neuron (ADALINE) training, which complicates the theoretical analysis of the method. In this paper, we develop a unified approach for mean-square convergence analysis for ADALINE training under MEE criterion. The weight update equation is formulated in the form of block-data. Based on a block version of energy conservation relation, and under several assumptions, we carry out the mean-square convergence analysis of this class of adaptation algorithm, including mean-square stability, mean-square evolution (transient behavior) and the mean-square steady-state performance. Simulation experimental results agree with the theoretical predictions very well.
Keywords :
convergence of numerical methods; error analysis; learning (artificial intelligence); least mean squares methods; minimum entropy methods; ADALINE training; MEE; adaptation algorithm; adaptive linear neuron; energy conservation relation; mean square convergence analysis; mean square evolution; mean square stability; mean square steady-state performance; minimum error entropy criterion; supervised learning systems; ADALINE training; energy-conservation relation; mean-square convergence analysis; minimum error entropy (MEE) criterion; Algorithms; Animals; Computer Simulation; Entropy; Information Theory; Linear Models; Models, Neurological; Neural Networks (Computer); Neurons;
Journal_Title :
Neural Networks, IEEE Transactions on
DOI :
10.1109/TNN.2010.2050212