This function calculates a variety of network metrics for a tna
object.
It computes key metrics such as node and edge counts, network density,
mean distance, strength measures, degree centrality, and reciprocity.
# S3 method for group_tna
summary(object, combined = TRUE, ...)
A summary.group_tna
object which is a list
of list
s or a
combined data.frame
containing the following network metrics:
node_count
: The total number of nodes.
edge_count
: The total number of edges.
network_Density
: The density of the network.
mean_distance
: The mean shortest path length.
mean_out_strength
: The mean out-strength of nodes.
sd_out_strength
: The standard deviation of out-strength.
mean_in_strength
: The mean in-strength of nodes.
sd_in_strength
: The standard deviation of in-strength.
mean_out_degree
: The mean out-degree of nodes.
sd_out_degree
: The standard deviation of out-degree.
centralization_out_degree
: The centralization of out-degree.
centralization_in_degree
: The centralization of in-degree.
reciprocity
: The reciprocity of the network.
A group_tna
object.
A logical indicating whether the summary results should be
combined into a single data frame for all clusters (defaults to TRUE
)
Ignored
The function extracts the igraph
network for each cluster and
computes the following network metrics:
Node count: Total number of nodes in the network.
Edge count: Total number of edges in the network.
Network density: Proportion of possible edges that are present in the network.
Mean distance: The average shortest path length between nodes.
Mean and standard deviation of out-strength and in-strength: Measures of the total weight of outgoing and incoming edges for each node.
Mean and standard deviation of out-degree: The number of outgoing edges from each node.
Centralization of out-degree and in-degree: Measures of how centralized the network is based on the degrees of nodes.
Reciprocity: The proportion of edges that are reciprocated (i.e., mutual edges between nodes).
Cluster-related functions
bootstrap()
,
centralities()
,
cliques()
,
communities()
,
deprune()
,
estimate_cs()
,
group_model()
,
hist.group_tna()
,
mmm_stats()
,
plot.group_tna()
,
plot.group_tna_centralities()
,
plot.group_tna_cliques()
,
plot.group_tna_communities()
,
plot.group_tna_stability()
,
plot_compare.group_tna()
,
plot_mosaic.group_tna()
,
plot_mosaic.tna_data()
,
print.group_tna()
,
print.group_tna_bootstrap()
,
print.group_tna_centralities()
,
print.group_tna_cliques()
,
print.group_tna_communities()
,
print.group_tna_stability()
,
print.summary.group_tna()
,
print.summary.group_tna_bootstrap()
,
prune()
,
pruning_details()
,
rename_groups()
,
reprune()
,
summary.group_tna_bootstrap()
group <- c(rep("High", 1000), rep("Low", 1000))
model <- group_model(group_regulation, group = group)
summary(model)
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