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S3
class "bdgraph"
, from function bdgraph
.plotroc( sim.obj, bdgraph.obj, bdgraph.obj2 = NULL, bdgraph.obj3 = NULL,
cut.num = 20, smooth = FALSE, label = TRUE )
S3
class "sim"
, from function bdgraph.sim
.
It also can be the adjacency matrix corresponding to the true graph structure in which $a_{ij}=1$ if there is a link beS3
class "bdgraph"
, from function bdgraph
.
It also can be an upper triangular matrix corresponding to the estimated posterior probabilities for S3
class "bdgraph"
, from function bdgraph
.
It also can be an upper triangular matrix corresponding to the estimated posterior probabilities forS3
class "bdgraph"
, from function bdgraph
.
It also can be an upper triangular matrix corresponding to the estimated posterior probabilities forMohammadi, A. and E. Wit (2015). R
Package for Bayesian Structure Learning in Graphical Models, arXiv:1501.05108
Mohammadi, A., F. Abegaz Yazew, E. van den Heuvel, and E. Wit (2015). Bayesian Gaussian Copula Graphical Modeling for Dupuytren Disease, arXiv:1501.04849
bdgraph
and compare
# Generating multivariate normal data from a 'random' graph
data.sim <- bdgraph.sim( n = 30, p = 6, size = 7, vis = TRUE )
# Runing sampling algorithm
bdgraph.obj <- bdgraph( data = data.sim, iter = 10000 )
# Comparing the results
plotroc( data.sim, bdgraph.obj )
# To compare the results based on CGGMs approach
bdgraph.obj2 <- bdgraph( data = data.sim, method = "gcgm", iter = 10000 )
# Comparing the resultss
plotroc( data.sim, bdgraph.obj, bdgraph.obj2, label = FALSE )
legend( "bottomright", c( "GGMs", "GCGMs" ), lty = c( 1,2 ), col = c( 1, 4 ) )
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