B ayesian Graphical Models
Finn V. Jensen, Thomas D. Nielsen
Abstract
Finn V. Jensen, Thomas D. Nielsen
Abstract
Abstract Mathematically, a Bayesian graphical model is a compact representation of the joint probability distribution for a set of variables. The most frequently used type of Bayesian graphical models are Bayesian networks. The structural part of a Bayesian graphical model is a graph consisting of nodes and edges. The nodes represent variables, which may be either discrete or continuous. An edge between two nodes and indicates a direct influence between the state of and the state of , which in some domains can also be interpreted as a causal relation. The widespread use of Bayesian networks is largely due to the availability of efficient inference algorithms for answering probabilistic queries about the states of the variables in the network. Furthermore, to support the construction of Bayesian network models, learning algorithms are also available. We give an overview of the Bayesian network formalism and some of the algorithmic developments in the area.
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Abstract Mathematically, a Bayesian graphical model is a compact representation of the joint probability distribution for a set of variables. The most frequently used type of Bayesian graphical models are Bayesian networks. The structural part of a Bayesian graphical model is a graph consisting of nodes and edges. The nodes represent variables, which may be either discrete or continuous. An edge between two nodes and indicates a direct influence between the state of and the state of , which in some domains can also be interpreted as a causal relation. The widespread use of Bayesian networks is largely due to the availability of efficient inference algorithms for answering probabilistic queries about the states of the variables in the network. Furthermore, to support the construction of Bayesian network models, learning algorithms are also available. We give an overview of the Bayesian network formalism and some of the algorithmic developments in the area.
Key concepts: Graphical model, Bayesian network, Variable-order Bayesian network, Computer science, Variable elimination, Bayesian probability, Bayesian inference, Theoretical computer science