In this contribution we give an overview over recent work on the theory of
interacting neural networks. The model is defined in Section 2. The typical
teacher/student scenario is considered in Section 3. A static teacher network
is presenting training examples for an adaptive student network. In the case of
multilayer networks, the student shows a transition from a symmetric state to
specialisation. Neural networks can also generate a time series. Training on
time series and predicting it are studied in Section 4. When a network is
trained on its own output, it is interacting with itself. Such a scenario has
implications on the theory of prediction algorithms, as discussed in Section 5.
When a system of networks is trained on its minority decisions, it may be
considered as a model for competition in closed markets, see Section 6. In
Section 7 we consider two mutually interacting networks. A novel phenomenon is
observed: synchronisation by mutual learning. In Section 8 it is shown, how
this phenomenon can be applied to cryptography: Generation of a secret key over
a public channel.
%0 Generic
%1 citeulike:364484
%A Kinzel, Wolfgang
%D 2002
%K interacting networks neural
%T Theory of Interacting Neural Networks
%U http://arxiv.org/abs/cond-mat/0204054
%X In this contribution we give an overview over recent work on the theory of
interacting neural networks. The model is defined in Section 2. The typical
teacher/student scenario is considered in Section 3. A static teacher network
is presenting training examples for an adaptive student network. In the case of
multilayer networks, the student shows a transition from a symmetric state to
specialisation. Neural networks can also generate a time series. Training on
time series and predicting it are studied in Section 4. When a network is
trained on its own output, it is interacting with itself. Such a scenario has
implications on the theory of prediction algorithms, as discussed in Section 5.
When a system of networks is trained on its minority decisions, it may be
considered as a model for competition in closed markets, see Section 6. In
Section 7 we consider two mutually interacting networks. A novel phenomenon is
observed: synchronisation by mutual learning. In Section 8 it is shown, how
this phenomenon can be applied to cryptography: Generation of a secret key over
a public channel.
@misc{citeulike:364484,
abstract = {In this contribution we give an overview over recent work on the theory of
interacting neural networks. The model is defined in Section 2. The typical
teacher/student scenario is considered in Section 3. A static teacher network
is presenting training examples for an adaptive student network. In the case of
multilayer networks, the student shows a transition from a symmetric state to
specialisation. Neural networks can also generate a time series. Training on
time series and predicting it are studied in Section 4. When a network is
trained on its own output, it is interacting with itself. Such a scenario has
implications on the theory of prediction algorithms, as discussed in Section 5.
When a system of networks is trained on its minority decisions, it may be
considered as a model for competition in closed markets, see Section 6. In
Section 7 we consider two mutually interacting networks. A novel phenomenon is
observed: synchronisation by mutual learning. In Section 8 it is shown, how
this phenomenon can be applied to cryptography: Generation of a secret key over
a public channel.},
added-at = {2007-08-18T13:22:24.000+0200},
author = {Kinzel, Wolfgang},
biburl = {https://www.bibsonomy.org/bibtex/282ef0313c2cdb3d1848ddcf5a2570fc0/a_olympia},
citeulike-article-id = {364484},
description = {citeulike},
eprint = {cond-mat/0204054},
interhash = {4f4acb071ffddd782130452c813662e9},
intrahash = {82ef0313c2cdb3d1848ddcf5a2570fc0},
keywords = {interacting networks neural},
month = Apr,
priority = {2},
timestamp = {2007-08-18T13:22:42.000+0200},
title = {Theory of Interacting Neural Networks},
url = {http://arxiv.org/abs/cond-mat/0204054},
year = 2002
}