22849

Transmission Neural Networks: From Virus Spread Models to Neural Networks

APA

(2022). Transmission Neural Networks: From Virus Spread Models to Neural Networks. The Simons Institute for the Theory of Computing. https://old.simons.berkeley.edu/talks/transmission-neural-networks-virus-spread-models-neural-networks-0

MLA

Transmission Neural Networks: From Virus Spread Models to Neural Networks. The Simons Institute for the Theory of Computing, Oct. 28, 2022, https://old.simons.berkeley.edu/talks/transmission-neural-networks-virus-spread-models-neural-networks-0

BibTex

          @misc{ scivideos_22849,
            doi = {},
            url = {https://old.simons.berkeley.edu/talks/transmission-neural-networks-virus-spread-models-neural-networks-0},
            author = {},
            keywords = {},
            language = {en},
            title = {Transmission Neural Networks: From Virus Spread Models to Neural Networks},
            publisher = {The Simons Institute for the Theory of Computing},
            year = {2022},
            month = {oct},
            note = {22849 see, \url{https://scivideos.org/simons-institute/22849}}
          }
          
Shuang Gao (McGill University)
Talk number22849
Source RepositorySimons Institute

Abstract

Abstract This work connects models for virus spread on networks with their equivalent neural network representations. Based on this connection, we propose a new neural network architecture, called Transmission Neural Networks (TransNNs) where activation functions are primarily associated with links and are allowed to have different activation levels. This connection also leads to the discovery and the derivation of three new activation functions with tunable or trainable parameters. We show that TransNNs with a single hidden layer and a fixed non-zero bias term are universal function approximators. Moreover, we establish threshold conditions for virus spread on networks where the dynamics are characterized by TransNNs. Finally, we present new derivations of continuous time epidemic models on networks based on TransNNs. *This is joint work with Peter E. Caines.