Document Type
Article
Publication Date
6-16-2016
Published In
Physical Review E
Abstract
Utilizing the sparsity ubiquitous in real-world network connectivity, we develop a theoretical framework for efficiently reconstructing sparse feed-forward connections in a pulse-coupled nonlinear network through its output activities. Using only a small ensemble of random inputs, we solve this inverse problem through the compressive sensing theory based on a hidden linear structure intrinsic to the nonlinear network dynamics. The accuracy of the reconstruction is further verified by the fact that complex inputs can be well recovered using the reconstructed connectivity. We expect this Rapid Communication provides a new perspective for understanding the structure-function relationship as well as compressive sensing principle in nonlinear network dynamics.
Recommended Citation
Victor J. Barranca, D. Zhou, and D. Cai.
(2016).
"Compressive Sensing Reconstruction Of Feed-Forward Connectivity In Pulse-Coupled Nonlinear Networks".
Physical Review E.
Volume 93,
Issue 6.
DOI: 10.1103/PhysRevE.93.060201
https://works.swarthmore.edu/fac-math-stat/172
Comments
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