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Erfan Nozari

Researcher at University of Pennsylvania

Publications -  39
Citations -  770

Erfan Nozari is an academic researcher from University of Pennsylvania. The author has contributed to research in topics: Network controllability & Complex network. The author has an hindex of 10, co-authored 33 publications receiving 425 citations. Previous affiliations of Erfan Nozari include University of California, San Diego & University of California, Riverside.

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Differentially private average consensus

TL;DR: In this article, a differentially private Laplacian consensus algorithm was proposed for the multi-agent average consensus problem under the requirement of differential privacy of the agents initial states against an adversary that has access to all the messages.
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Differentially Private Distributed Convex Optimization via Functional Perturbation

TL;DR: The impossibility of achieving differential privacy is proved using strategies based on perturbing the inter-agent messages with noise when the underlying noise-free dynamics are asymptotically stable, justifying the algorithmic solution based on the perturbation of individual functions with Laplace noise.
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Teaching recurrent neural networks to infer global temporal structure from local examples

TL;DR: It is demonstrated that a recurrent neural network (RNN) can learn to modify its representation of complex information using only examples, and the associated learning mechanism is explained with new theory.
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Differentially Private Average Consensus with Optimal Noise Selection

TL;DR: An impossibility result is established that shows that exact average consensus cannot be achieved by any algorithm that preserves differential privacy, which motives the design of a differentially private discrete-time distributed algorithm that corrupts messages with Laplacian noise and is guaranteed to achieve average consensus in expectation.
Posted ContentDOI

Is the brain macroscopically linear? A system identification of resting state dynamics

TL;DR: In this article, the authors provide a rigorous and data-driven answer at the level of whole-brain bloodoxygen-level-dependent (BOLD) and macroscopic field potential dynamics by leveraging the theory of system identification.