def main(argv):
#Standardvalues
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
to_pajek = False
try:
opts, args = getopt.getopt(argv,"p:s:o")
except getopt.GetoptError:
print 'group_bridging.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
sys.exit(2)
for opt, arg in opts:
if opt in ("-p"):
project = arg
elif opt in ("-s"):
partitionfile = arg
elif opt in ("-o"):
to_pajek = True
else:
print 'group_bridging.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
print "##################### GROUP BRIDGING ########################"
print "Project %s " % project
print "Partition %s" % partitionfile
ff_edges_writer = csv.writer(open("results/%s_ff_bridging_edges.csv" % project, "wb"))
at_edges_writer = csv.writer(open("results/%s_at_bridging_edges.csv" % project, "wb"))
rt_edges_writer = csv.writer(open("results/%s_rt_bridging_edges.csv" % project, "wb"))
csv_bridging_writer = csv.writer(open('results/spss/group bridging/%s_group_bridging.csv' % project , 'wb'))
csv_bridging_writer.writerow(["Project", "Name", "Member_count", "Competing_Lists",
"FF_bin_degree", "FF_bin_in_degree", "FF_bin_out_degree",
"FF_volume_in","FF_volume_out",
"FF_bin_betweeness","FF_bin_closeness", "FF_bin_pagerank", #"FF_bin_eigenvector",
"FF_bin_c_size","FF_bin_c_density","FF_bin_c_hierarchy","FF_bin_c_index",
"AT_bin_degree", "AT_bin_in_degree", "AT_bin_out_degree",
"AT_bin_betweeness", "AT_bin_closeness", "AT_bin_pagerank", #"AT_bin_eigenvector",
"AT_bin_c_size","AT_bin_c_density","AT_bin_c_hierarchy","AT_bin_c_index",
"AT_volume_in", "AT_volume_out",
"RT_volume_in", "RT_volume_out",
"FF_rec", "AT_rec", "AT_avg", "FF_avg"])
# Get the overall network from disk
FF = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT = nx.read_edgelist('data/networks/%s_solr_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT = nx.read_edgelist('data/networks/%s_solr_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
# Read in the partition
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
#Read in members count for each project
reader = csv.reader(open("results/stats/%s_lists_stats.csv" % project, "rb"), delimiter=",")
temp = {}
reader.next() # Skip first row
for row in reader:
temp[row[0]] = {"name":row[0],"member_count":int(row[3])}
#Read in the list-listings for individuals
listings = {}
indiv_reader = csv.reader(open(partitionfile))
for row in indiv_reader:
if listings.has_key(row[1]):
listings[row[1]]["competing_lists"] += int(row[3])
else:
listings[row[1]] = {"competing_lists": int(row[3])}
# Add dummy nodes if they are missing in the networks
for partition in partitions:
for node in partition:
FF.add_node(node)
AT.add_node(node)
RT.add_node(node)
#Blockmodel the networks into groups according to the partition
P_FF = nx.blockmodel(FF,partitions)
P_AT = nx.blockmodel(AT,partitions)
P_RT = nx.blockmodel(RT,partitions)
#Name the nodes in the network
#TODO check: How do I know that the names really match?
mapping = {}
mapping_pajek = {}
i = 0
for group in groups:
mapping_pajek[i] = "\"%s\"" % group # mapping for pajek
mapping[i] = "%s" % group
i += 1
H_FF = nx.relabel_nodes(P_FF,mapping)
H_AT = nx.relabel_nodes(P_AT,mapping)
H_RT = nx.relabel_nodes(P_RT,mapping)
#Outpt the networks to pajek if needed
if to_pajek:
OUT_FF = nx.relabel_nodes(P_FF,mapping_pajek)
OUT_AT = nx.relabel_nodes(P_AT,mapping_pajek)
OUT_RT = nx.relabel_nodes(P_RT,mapping_pajek)
#Write the blocked network out to disk
nx.write_pajek(OUT_FF,"results/networks/%s_grouped_FF.net" % project)
nx.write_pajek(OUT_AT,"results/networks/%s_grouped_AT.net" % project)
nx.write_pajek(OUT_RT,"results/networks/%s_grouped_RT.net" % project)
########## Output the Edges between groups to csv ##############
# Needed for the computation of individual bridging
# Edges in both directions between the groups are addded up
processed_edges = []
for (u,v,attrib) in H_FF.edges(data=True):
if "%s%s" %(u,v) not in processed_edges:
processed_edges.append("%s%s" % (u,v))
if H_FF.has_edge(v,u):
processed_edges.append("%s%s" % (v,u))
ff_edges_writer.writerow([u,v,attrib["weight"]+H_FF[v][u]["weight"]])
else:
ff_edges_writer.writerow([u,v,attrib["weight"]])
processed_edges = []
for (u,v,attrib) in H_AT.edges(data=True):
if "%s%s" %(u,v) not in processed_edges:
processed_edges.append("%s%s" % (u,v))
if H_AT.has_edge(v,u):
processed_edges.append("%s%s" % (v,u))
at_edges_writer.writerow([u,v,attrib["weight"]+H_AT[v][u]["weight"]])
else:
at_edges_writer.writerow([u,v,attrib["weight"]])
processed_edges = []
for (u,v,attrib) in H_RT.edges(data=True):
if "%s%s" %(u,v) not in processed_edges:
processed_edges.append("%s%s" % (u,v))
if H_RT.has_edge(v,u):
processed_edges.append("%s%s" % (v,u))
rt_edges_writer.writerow([u,v,attrib["weight"]+H_RT[v][u]["weight"]])
else:
rt_edges_writer.writerow([u,v,attrib["weight"]])
########## TRIM EDGES ################
# For meaningfull results we have to trim edges in the AT and FF network so the whole network just doesnt look like a blob
# It is chosen this way so the network remains as one component
THRESHOLD = min([hp.min_threshold(H_AT),hp.min_threshold(H_FF)])-1
H_FF = hp.trim_edges(H_FF, THRESHOLD)
H_AT = hp.trim_edges(H_AT, THRESHOLD)
########## MEASURES ##############
#Get the number of nodes in the aggregated networks
#FF_nodes = {}
#for node in H_FF.nodes(data=True):
# FF_nodes[node[0]] = node[1]["nnodes"]
#Get the FF network measures of the nodes
# Works fine on binarized Data
FF_bin_degree = nx.degree_centrality(H_FF)
FF_bin_in_degree = nx.in_degree_centrality(H_FF) # The attention paid towards this group
FF_bin_out_degree = nx.out_degree_centrality(H_FF) # The attention that this group pays towards other people
FF_bin_betweenness = nx.betweenness_centrality(H_FF,weight="weight") # How often is the group between other groups
FF_bin_closeness = nx.closeness_centrality(H_FF) #FF_bin_eigenvector = nx.eigenvector_centrality(H_FF)
FF_bin_pagerank = nx.pagerank(H_FF)
FF_bin_struc = sx.structural_holes(H_FF)
# AT network measures of the nodes
AT_bin_degree = nx.degree_centrality(H_AT)
AT_bin_in_degree = nx.in_degree_centrality(H_AT)
AT_bin_out_degree = nx.out_degree_centrality(H_AT)
AT_bin_betweenness = nx.betweenness_centrality(H_AT,weight="weight")
AT_bin_closeness = nx.closeness_centrality(H_AT) #AT_bin_eigenvector = nx.eigenvector_centrality(H_AT)
AT_bin_pagerank = nx.pagerank(H_AT)
AT_bin_struc = sx.structural_holes(H_AT)
# Tie strengths
dAT_avg_tie = hp.individual_average_tie_strength(H_AT)
dFF_avg_tie = hp.individual_average_tie_strength(H_FF)
dAT_rec = hp.individual_reciprocity(H_AT)
dFF_rec = hp.individual_reciprocity(H_FF)
# Dependent Variable see csv
# TODO A measure that calculates how often Tweets travel through this group: Eventually betweeness in the RT graph
#Arrange it in a list and output
for node in FF_bin_degree.keys():
csv_bridging_writer.writerow([project, node, int(temp[node]["member_count"]), listings[node]["competing_lists"],
FF_bin_degree[node], FF_bin_in_degree[node], FF_bin_out_degree[node],
H_FF.in_degree(node,weight="weight"), H_FF.out_degree(node,weight="weight"),
FF_bin_betweenness[node],FF_bin_closeness[node],FF_bin_pagerank[node], #FF_bin_eigenvector[node],
FF_bin_struc[node]['C-Size'],FF_bin_struc[node]['C-Density'],FF_bin_struc[node]['C-Hierarchy'],FF_bin_struc[node]['C-Index'],
AT_bin_degree[node], AT_bin_in_degree[node], AT_bin_out_degree[node],
AT_bin_betweenness[node], AT_bin_closeness[node], AT_bin_pagerank[node], #AT_bin_eigenvector[node],
AT_bin_struc[node]['C-Size'],AT_bin_struc[node]['C-Density'],AT_bin_struc[node]['C-Hierarchy'],AT_bin_struc[node]['C-Index'],
H_AT.in_degree(node,weight="weight"), H_AT.out_degree(node,weight="weight"),
H_RT.in_degree(node,weight="weight"), H_RT.out_degree(node,weight="weight"),
dFF_rec[node],dAT_rec[node],dAT_avg_tie[node],dFF_avg_tie[node]
])
def main(argv):
# Partitionfile
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
reverse = False
# Read in Networks
FF_all = nx.read_edgelist(
"data/networks/%s_FF.edgelist" % project, nodetype=str, data=(("weight", float),), create_using=nx.DiGraph()
)
AT_all = nx.read_edgelist(
"data/networks/%s_solr_AT.edgelist" % project,
nodetype=str,
data=(("weight", float),),
create_using=nx.DiGraph(),
)
RT_all = nx.read_edgelist(
"data/networks/%s_solr_RT.edgelist" % project,
nodetype=str,
data=(("weight", float),),
create_using=nx.DiGraph(),
)
try:
opts, args = getopt.getopt(argv, "r")
except getopt.GetoptError:
print "edges.py -r [if you want to reverse the AT<-->RT tie direction ]"
for opt, arg in opts:
if opt in ("-r"):
print "Calculating the influence of outgoing AT ties on incoming RT ties"
reverse = True
# Output
summary_csv_writer = csv.writer(open("results/spss/edges/%s_edges_summary.csv" % project, "wb"))
summary_csv_writer.writerow(["Community", "Retweets Inside Community", "Retweets between Communities"])
if reverse:
bridging_csv_writer = csv.writer(
open("results/spss/edges/%s_reverse_bridging_edges.csv" % project, "wb")
) # reverse
bonding_csv_writer = csv.writer(
open("results/spss/edges/%s_reverse_bonding_edges.csv" % project, "wb")
) # reverse
else:
bridging_csv_writer = csv.writer(open("results/spss/edges/%s_bridging_edges.csv" % project, "wb"))
bonding_csv_writer = csv.writer(open("results/spss/edges/%s_bonding_edges.csv" % project, "wb"))
# Read in the partitions
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
ff_bridging_edges = defaultdict(dict)
ff_bonding_edges = defaultdict(dict)
at_bridging_edges = defaultdict(dict)
at_bonding_edges = defaultdict(dict)
rt_bridging_edges = defaultdict(list)
rt_bonding_edges = defaultdict(list)
total_bridging_edges = 0
total_bonding_edges = 0
i = 0
for partition in partitions:
################ FF Edges ######################
# Collect the FF edges between groups
for edge in nx.edge_boundary(FF_all, partition):
if FF_all.has_edge(edge[1], edge[0]):
ff_bridging_edges[edge[0]][edge[1]] = "ff_recip"
else:
ff_bridging_edges[edge[0]][edge[1]] = "ff_non_recip"
# Collect the FF edges inside the group
for edge in FF_all.subgraph(partition).edges():
if FF_all.has_edge(edge[1], edge[0]):
ff_bonding_edges[edge[0]][edge[1]] = "ff_recip"
else:
ff_bonding_edges[edge[0]][edge[1]] = "ff_non_recip"
################ AT Edges ######################
# TODO its missing the reciprocated edges that have a weight > 1
# Idea 1: We might simply add up the incoming and outgoing edges to a total weight
# Collect the AT edges that are between groups
for edge in nx.edge_boundary(AT_all, partition):
if AT_all.has_edge(edge[1], edge[0]):
if AT_all.get_edge_data(*edge)["weight"] == 1:
at_bridging_edges[edge[0]][edge[1]] = "at_recip"
else:
if AT_all.get_edge_data(*edge)["weight"] == 1:
at_bridging_edges[edge[0]][edge[1]] = "at_non_recip_w1"
else:
at_bridging_edges[edge[0]][edge[1]] = AT_all.get_edge_data(*edge)["weight"]
# Collect the AT edges that are inside the group
for edge in AT_all.subgraph(partition).edges():
if AT_all.has_edge(edge[1], edge[0]):
if AT_all.get_edge_data(*edge)["weight"] == 1:
at_bonding_edges[edge[0]][edge[1]] = "at_recip"
else:
if AT_all.get_edge_data(*edge)["weight"] == 1:
at_bonding_edges[edge[0]][edge[1]] = "at_non_recip_w1"
else:
at_bonding_edges[edge[0]][edge[1]] = AT_all.get_edge_data(*edge)["weight"]
################ RT Edges ######################
# Collect the RT edges between groups:
tmp_rt_bridging_edges = 0
for edge in nx.edge_boundary(RT_all, partition):
tmp_rt_bridging_edges += RT_all.get_edge_data(*edge)["weight"]
rt_bridging_edges[RT_all.get_edge_data(*edge)["weight"]].append((edge[0], edge[1]))
total_bridging_edges += tmp_rt_bridging_edges
# Collect the RT edges inside group
tmp_rt_bonding_edges = 0
for edge in RT_all.subgraph(partition).edges():
tmp_rt_bonding_edges += RT_all.get_edge_data(*edge)["weight"]
rt_bonding_edges[RT_all.get_edge_data(*edge)["weight"]].append((edge[0], edge[1]))
total_bonding_edges += tmp_rt_bonding_edges
summary_csv_writer.writerow([groups[i], tmp_rt_bonding_edges, tmp_rt_bridging_edges])
print "Community %s, Total Retweets inside: %s, Total Retweets between %s" % (
groups[i],
tmp_rt_bonding_edges,
tmp_rt_bridging_edges,
)
i += 1
print "Total Bonding Edges %s" % total_bonding_edges
print "Total Bridging Edges %s" % total_bridging_edges
##################BONDING: Influence of AT strengths on bonding retweets ##############################
bonding_flow = defaultdict(list)
for rt_strength, retweets in rt_bonding_edges.iteritems():
for retweet in retweets:
value = None
try:
if reverse:
value = at_bonding_edges[retweet[1]][retweet[0]] # Reverse
del at_bonding_edges[retweet[1]][retweet[0]] # delete that entry reverse
else:
value = at_bonding_edges[retweet[0]][retweet[1]] # Same direction
del at_bonding_edges[retweet[0]][retweet[1]] # delete that entry same direction
except:
""
if value == None: # If the AT Network led to no diffusion ONLY then check the FF network
try:
if reverse:
value = ff_bonding_edges[retweet[1]][retweet[0]] # Reverse
del ff_bonding_edges[retweet[1]][retweet[0]] # delete that entry reverse
else:
value = ff_bonding_edges[retweet[0]][retweet[1]] # Same direction
del ff_bonding_edges[retweet[0]][retweet[1]] # delete that entry same direction
except:
""
if value == None: # A retweet happend despite there being no ties at all
value = "no_tie"
bonding_flow[value].append(rt_strength)
bonding_no_flow = {}
# Count the AT ties that led to no diffusion
for k, v1 in at_bonding_edges.iteritems():
for k, value in v1.iteritems():
if bonding_no_flow.has_key(value):
bonding_no_flow[value] += 1
else:
bonding_no_flow[value] = 0
# Count the FF ties that led to no diffusion
for k, v1 in ff_bonding_edges.iteritems():
for k, value in v1.iteritems():
if bonding_no_flow.has_key(value):
bonding_no_flow[value] += 1
else:
bonding_no_flow[value] = 0
##################BRIDGING: Influence of AT strenghts on bridging retweets ##############################
bridging_flow = defaultdict(list)
for rt_strength, retweets in rt_bridging_edges.iteritems():
for retweet in retweets:
value = None
try:
if reverse:
value = at_bridging_edges[retweet[1]][retweet[0]] # reverse
del at_bridging_edges[retweet[1]][retweet[0]] # delete that entry reverse
else:
value = at_bridging_edges[retweet[0]][retweet[1]] # Same direction
del at_bridging_edges[retweet[0]][retweet[1]] # delete that entry same direction
except:
""
if value == None: # If the AT Network led to no diffusion ONLY then check the FF network
try:
if reverse:
value = ff_bridging_edges[retweet[1]][retweet[0]] # Reverse
del ff_bridging_edges[retweet[1]][retweet[0]] # delete that entry reverse
else:
value = ff_bridging_edges[retweet[0]][retweet[1]] # Same direction
del ff_bridging_edges[retweet[0]][retweet[1]] # delete that entry same direction
except:
""
if value == None: # A retweet happend despite there being no ties at all
value = "no_tie"
bridging_flow[value].append(rt_strength)
bridging_no_flow = {}
# Count the AT ties that led to no diffusion
for k, v1 in at_bridging_edges.iteritems():
for k, value in v1.iteritems():
if bridging_no_flow.has_key(value):
bridging_no_flow[value] += 1
else:
bridging_no_flow[value] = 0
# Count the FF ties that led to no diffusion
for k, v1 in ff_bridging_edges.iteritems():
for k, value in v1.iteritems():
if bridging_no_flow.has_key(value):
bridging_no_flow[value] += 1
else:
bridging_no_flow[value] = 0
########################### Output ###########################
bridging_csv_writer.writerow(
[
"bridging_tie_type",
"#_ties_w_retweets",
"#_ties_w_o_retweets",
"#_retweets",
"%_of_total",
"retweets/#_ties_w_o_retweets",
"retweets/#_ties_w_retweets",
"std",
]
)
bonding_csv_writer.writerow(
[
"bonding_tie_type",
"#_ties_w_retweets",
"#_ties_w_o_retweets",
"#_retweets",
"%_of_total",
"retweets/#_ties_w_o_retweets",
"retweets/#_ties_w_retweets",
"std",
]
)
# BRIDGING TIES
bridging_total = [val for subl in bridging_flow.values() for val in subl]
bridging_noflow_total = sum(bridging_no_flow.values())
for k, v in bridging_flow.iteritems():
if bridging_no_flow.has_key(k) and bridging_no_flow[k] != 0 and len(bridging_flow[k]) > 5:
ratio = sum(bridging_flow[k]) / bridging_no_flow[k]
of_total = sum(bridging_flow[k]) / float(sum(bridging_total))
std = np.std(bridging_flow[k])
average = np.average(bridging_flow[k])
bridging_csv_writer.writerow(
[k, len(bridging_flow[k]), bridging_no_flow[k], sum(bridging_flow[k]), of_total, ratio, average, std]
)
if k == "no_tie":
std = np.std(bridging_flow[k])
average = np.average(bridging_flow[k])
bridging_csv_writer.writerow([k, len(bridging_flow[k]), 0, sum(bridging_flow[k]), 0, 0, average, std])
std = np.std(bridging_total)
average = np.average(bridging_total)
bridging_csv_writer.writerow(
[
"total",
len(bridging_total),
bridging_noflow_total,
sum(bridging_total),
1,
sum(bridging_total) / float(bridging_noflow_total),
average,
std,
]
)
# BONDING TIES
bonding_total = [val for subl in bonding_flow.values() for val in subl]
bonding_noflow_total = sum(bonding_no_flow.values())
for k, v in bonding_flow.iteritems():
if bonding_no_flow.has_key(k) and bonding_no_flow[k] != 0 and len(bonding_flow[k]) > 5:
ratio = sum(bonding_flow[k]) / bonding_no_flow[k]
of_total = sum(bridging_flow[k]) / float(sum(bonding_total))
std = np.std(bonding_flow[k])
average = np.average(bonding_flow[k])
bonding_csv_writer.writerow(
[k, len(bonding_flow[k]), bonding_no_flow[k], sum(bonding_flow[k]), of_total, ratio, average, std]
)
if k == "no_tie":
std = np.std(bonding_flow[k])
average = np.average(bonding_flow[k])
bonding_csv_writer.writerow([k, len(bonding_flow[k]), 0, sum(bonding_flow[k]), 0, 0, average, std])
std = np.std(bonding_total)
average = np.average(bonding_total)
bonding_csv_writer.writerow(
[
"total",
len(bonding_total),
bonding_noflow_total,
sum(bonding_total),
1,
sum(bonding_total) / float(bonding_no_flow_total),
average,
std,
]
)
import networkx as nx
import csv
import helper as hp
import sys
import sys,getopt
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
FF_all = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT_all = nx.read_edgelist('data/networks/%s_solr_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT_all = nx.read_edgelist('data/networks/%s_solr_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
#Read in the network as a dict
def nonull(stream):
for line in stream:
yield line.replace('\x00', '')
def read_in_net(edges_file):
net_hash = {}
for row in edges_file:
if not net_hash.has_key(row[0]):
net_hash[row[0]] = {row[1]: []}
if not net_hash[row[0]].has_key(row[1]):
net_hash[row[0]] = dict(net_hash[row[0]].items() + {row[1]: []}.items())
net_hash[row[0]][row[1]].append(row[3])
return net_hash
f1 = open("data/solr_584_at_connections.csv", "rb")
def main(argv):
#Standardvalues
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
to_pajek = False
try:
opts, args = getopt.getopt(argv,"p:s:o")
except getopt.GetoptError:
print 'individual_bridging.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
sys.exit(2)
for opt, arg in opts:
if opt in ("-p"):
project = arg
elif opt in ("-s"):
partitionfile = arg
elif opt in ("-o"):
to_pajek = True
else:
print 'individual_bridging.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
print "##################### INDIVIDUAL BRIDGING ########################"
print "Project %s " % project
print "Partition %s" % partitionfile
csv_bridging_writer = csv.writer(open('results/spss/individual bridging/%s_individual_bridging.csv' % project, 'wb'))
csv_bridging_writer.writerow(["Name", "Group1", "Group2", "Number_between_ties",
"Competing_lists",
"FF_bin_degree", "FF_bin_in_degree", "FF_bin_out_degree",
"FF_bin_betweeness",
#"FF_c_size","FF_c_density","FF_c_hierarchy","FF_c_index",
"FF_own_group_in_volume", "FF_other_group_in_volume",
"FF_own_group_out_volume", "FF_other_group_out_volume",
"AT_bin_degree", "AT_bin_in_degree", "AT_bin_out_degree",
"AT_bin_betweeness",
"AT_volume_in", "AT_volume_out",
#"AT_c_size","AT_c_density","AT_c_hierarchy","AT_c_index",
"AT_own_group_in_volume", "AT_other_group_in_volume",
"AT_own_group_out_volume", "AT_other_group_out_volume",
"RT_total_volume_in", "RT_total_volume_out",
"RT_own_group_in_volume", "RT_other_group_in_volume",
"RT_own_group_out_volume", "RT_other_group_out_volume"])
#Read in the list-listings for individuals
listings = {}
indiv_reader = csv.reader(open(partitionfile))
for row in indiv_reader:
listings[row[0]] = {"group":row[1],"place":int(row[2]), "competing_lists": int(row[3])}
#Read in the edges between the groups and sort them
GROUPS = 80 # 80x200 ~ 16000 individuals for analysis
reader = csv.reader(open("results/%s_bridging_edges.csv" % project, "rb"), delimiter=",")
edges = []
for row in reader:
edges.append({"group1":row[0],"group2":row[1], "count":float(row[2])})
edges_sorted = sorted(edges, key=lambda k: k["count"])
distance_between_samples = int(float(len(edges_sorted)) / GROUPS)
if distance_between_samples == 0: distance_between_samples = 1 #Minimal Distance
iterator = 0
# Read in the partition
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
# Read in the networks
FF_all = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT_all = nx.read_edgelist('data/networks/%s_solr_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT_all = nx.read_edgelist('data/networks/%s_solr_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
i = 0
for partition in partitions:
for node in partition:
FF_all.add_node(node, group = groups[i]) # Add nodes
AT_all.add_node(node, group = groups[i])
RT_all.add_node(node, group = groups[i])
i += 1
while iterator < len(edges_sorted):
#Genereate a subgraph consisting out of two partitions
# Problem: With n= 2(pairs of 2) and k = 200 (~number of groups) we can generate 200 ^ 200 /2 combinations. How to generate the two pairs?
# Solution 1: By Random
# Solution 2: Based on the ordered tie strength between groups from the group bridging step
# e.g. [10,9,8,7,6,5,0] take every xth element to create set with this size [10,8,6,0]
# TODO Bin same edges with same weight into the same category and then select a grop by random
selected_edge = edges_sorted[iterator]
group1 = selected_edge["group1"]
group2 = selected_edge["group2"]
index1 = groups.index(group1)
index2 = groups.index(group2)
print "%s : %s with %s of strength %s" % (iterator, group1, group2, selected_edge["count"])
# Create Subgraphs
S_FF = FF_all.subgraph(partitions[index1]+partitions[index2])
S_FF.name = "%s_%s" % (group1, group2)
S_AT = AT_all.subgraph(partitions[index1]+partitions[index2])
S_AT.name = "%s_%s" % (group1, group2)
S_RT = RT_all.subgraph(partitions[index1]+partitions[index2])
S_RT.name = "%s_%s" % (group1, group2)
iterator += distance_between_samples # Make equidistant steps in with the iterator
#Optional Output to pajek
if to_pajek:
print "Generating pajek output for %s %s" % (groups[index1], groups[index2])
#Relabel for pajek
def mapping(x):
return "\"%s\"" % x
H_FF = nx.relabel_nodes(S_FF,mapping)
H_AT = nx.relabel_nodes(S_AT,mapping)
H_RT = nx.relabel_nodes(S_RT,mapping)
#Write it to disk
nx.write_pajek(H_FF,"results/networks/pairs/%s_%s_%s_pair_FF.net" % (project, groups[index1], groups[index2]))
nx.write_pajek(H_AT,"results/networks/pairs/%s_%s_%s_pair_AT.net" % (project, groups[index1], groups[index2]))
nx.write_pajek(H_RT,"results/networks/pairs/%s_%s_%s_pair_RT.net" % (project, groups[index1], groups[index2]))
################ MEASURES ################
## FF measures
dFF_bin = nx.degree_centrality(S_FF)
dFF_bin_in = nx.in_degree_centrality(S_FF)
dFF_bin_out = nx.out_degree_centrality(S_FF)
dFF_bin_betweeness = nx.betweenness_centrality(S_FF)
# Structural Holes has problems, probably with nonconnected networks (eventually compte bigest component first)
# dFF_struc = sx.structural_holes(S_FF)
# Which one is own group which one is other ?
dFF_group1_vol_in = hp.individual_in_volume(S_FF,group1)
dFF_group2_vol_in = hp.individual_in_volume(S_FF,group2)
dFF_group1_vol_out = hp.individual_out_volume(S_FF,group1)
dFF_group2_vol_out = hp.individual_out_volume(S_FF,group2)
## AT Measures
dAT_bin = nx.degree_centrality(S_AT)
dAT_bin_in = nx.in_degree_centrality(S_AT)
dAT_bin_out = nx.out_degree_centrality(S_AT)
dAT_bin_betweeness = nx.betweenness_centrality(S_AT)
# Why can here the structural holes not be computed?
#dAT_struc = sx.structural_holes(S_AT)
dAT_group1_vol_in = hp.individual_in_volume(S_AT,group1)
dAT_group2_vol_in = hp.individual_in_volume(S_AT,group2)
dAT_group1_vol_out = hp.individual_out_volume(S_AT,group1)
dAT_group2_vol_out = hp.individual_out_volume(S_AT,group2)
############### DEPENDENT VARIABLES ###########
dRT_group1_vol_in = hp.individual_in_volume(S_RT,group1)
dRT_group2_vol_in = hp.individual_in_volume(S_RT,group2)
dRT_group1_vol_out = hp.individual_out_volume(S_RT,group1)
dRT_group2_vol_out = hp.individual_out_volume(S_RT,group2)
############ OUTPUT ###########################
#Arrange it in a list and output
for node in dFF_bin.keys():
# Depending if the node is in partition 1 or two the definition of "own" and "other" changes.
if node in partitions[index1]:
#FF
FF_own_group_in_volume = dFF_group1_vol_in[node]
FF_own_group_out_volume = dFF_group1_vol_out[node]
FF_other_group_in_volume = dFF_group2_vol_in[node]
FF_other_group_out_volume = dFF_group2_vol_out[node]
#AT
AT_own_group_in_volume = dAT_group1_vol_in[node]
AT_own_group_out_volume = dAT_group1_vol_out[node]
AT_other_group_in_volume = dAT_group2_vol_in[node]
AT_other_group_out_volume = dAT_group2_vol_out[node]
#RT
RT_own_group_in_volume = dRT_group1_vol_in[node]
RT_own_group_out_volume = dRT_group1_vol_out[node]
RT_other_group_in_volume = dRT_group2_vol_in[node]
RT_other_group_out_volume = dRT_group2_vol_out[node]
else:
FF_own_group_in_volume = dFF_group2_vol_in[node]
FF_own_group_out_volume = dFF_group2_vol_out[node]
FF_other_group_in_volume = dFF_group1_vol_in[node]
FF_other_group_out_volume = dFF_group1_vol_out[node]
#AT
AT_own_group_in_volume = dAT_group2_vol_in[node]
AT_own_group_out_volume = dAT_group2_vol_out[node]
AT_other_group_in_volume = dAT_group1_vol_in[node]
AT_other_group_out_volume = dAT_group1_vol_out[node]
#RT
RT_own_group_in_volume = dRT_group2_vol_in[node]
RT_own_group_out_volume = dRT_group2_vol_out[node]
RT_other_group_in_volume = dRT_group1_vol_in[node]
RT_other_group_out_volume = dRT_group1_vol_out[node]
csv_bridging_writer.writerow([node, group1, group2,selected_edge["count"],
listings[node]["competing_lists"],
dFF_bin[node], dFF_bin_in[node], dFF_bin_out[node],
dFF_bin_betweeness[node],
#dFF_struc[node]['C-Size'],dFF_struc[node]['C-Density'],dFF_struc[node]['C-Hierarchy'],dFF_struc[node]['C-Index'],
FF_own_group_in_volume, FF_other_group_in_volume,
FF_own_group_out_volume, FF_other_group_out_volume,
dAT_bin[node], dAT_bin_in[node], dAT_bin_out[node],
dAT_bin_betweeness[node],
S_AT.in_degree(node,weight="weight"), S_AT.out_degree(node,weight="weight"),
#dAT_struc[node]['C-Size'],dAT_struc[node]['C-Density'],dAT_struc[node]['C-Hierarchy'],dAT_struc[node]['C-Index'],
AT_own_group_in_volume, AT_other_group_in_volume,
AT_own_group_out_volume, AT_other_group_out_volume,
S_RT.in_degree(node,weight="weight"), S_RT.out_degree(node,weight="weight"),
RT_own_group_in_volume, RT_other_group_in_volume,
RT_own_group_out_volume, RT_other_group_out_volume,
])
def main(argv):
#Standardvalues
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
to_pajek = False
try:
opts, args = getopt.getopt(argv,"p:s:o")
except getopt.GetoptError:
print 'individual_bridging_2.py -p <project_name> -s <partitionfile> '
sys.exit(2)
for opt, arg in opts:
if opt in ("-p"):
project = arg
elif opt in ("-s"):
partitionfile = arg
else:
print 'individual_bridging_2.py -p <project_name> -s <partitionfile> '
print "##################### INDIVIDUAL BRIDGING 2 (Working on whole network) ########################"
print "Project %s " % project
print "Partition %s" % partitionfile
csv_bridging_writer = csv.writer(open('results/spss/individual bridging/%s_individual_bridging_3.csv' % project, 'wb'))
csv_bridging_writer.writerow(["Project", "Community", "Person_ID",
"Competing_lists",
"FF_bin_degree", "FF_bin_in_degree", "FF_bin_out_degree",
"FF_vol_in", "FF_vol_out",
"FF_groups_in", "FF_groups_out",
"FF_rec",
"FF_bin_betweeness", #"FF_bin_closeness", "FF_bin_pagerank",
#"FF_c_size", "FF_c_density", "FF_c_hierarchy", "FF_c_index",
"AT_bin_degree", "AT_bin_in_degree", "AT_bin_out_degree",
"AT_vol_in", "AT_vol_out",
"AT_groups_in", "AT_groups_out",
"AT_rec",
"AT_bin_betweeness",#, "AT_bin_closeness", "AT_bin_pagerank",
# FF_c_size, FF_c_density, FF_c_hierarchy, FF_c_index,
"AT_avg_tie_strength","AT_strength_centrality_in",
"RT_bin_in_degree", "RT_bin_out_degree",
"RT_vol_in", "RT_vol_out"])
#Read in the list-listings for individuals
listings = {}
indiv_reader = csv.reader(open(partitionfile))
for row in indiv_reader:
listings[row[0]] = {"group":row[1],"place":int(row[2]), "competing_lists": int(row[3])}
# Read in the centralities of nodes in their corresponding community
centralities = {}
centrality_reader = csv.reader(open('results/spss/individual bonding/%s_individual_bonding.csv' % project))
for row in centrality_reader:
centralities[row[2]] = {"ff_in_degree":row[5]}
# Read in the partition
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
# Read in the networks
FF_all = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT_all = nx.read_edgelist('data/networks/%s_solr_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT_all = nx.read_edgelist('data/networks/%s_solr_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
print "Done reading in Networks"
#Determine the Maximum subset of nodes present in all Networks
maximum_subset = []
for node in FF_all.nodes():
if AT_all.has_node(node) and RT_all.has_node(node):
maximum_subset.append(node)
i = 0
for partition in partitions:
for node in partition:
FF_all.add_node(node, group = groups[i]) # Add nodes
AT_all.add_node(node, group = groups[i])
RT_all.add_node(node, group = groups[i])
i += 1
i = 0
#These measures are computed only once on the graph (we are making an error since the internal group structure is considered to load up those values)
if len(maximum_subset) < 1000:
scaling_k = len(maximum_subset)
else:
scaling_k = len(maximum_subset)/100
dFF_bin_betweeness = nx.betweenness_centrality(FF_all,k=scaling_k)
dAT_bin_betweeness = nx.betweenness_centrality(AT_all,k=scaling_k)
#dFF_struc = sx.structural_holes(FF_all)
for partition in partitions:
project_name = groups[i]
#Determine the groups that are not in the partition
all_other_groups = groups[:]
group = groups[i]
all_other_groups.remove(group)
# Get all the partitions without the current partition
partitions_without_partition = partitions[:]
partitions_without_partition.remove(partition)
#Remove the nodes that are in this partition
remaining_nodes = [item for sublist in partitions for item in sublist] #flatlist of all nodes
for nodes_to_be_deleted in partition:
remaining_nodes.remove(nodes_to_be_deleted)
#Create Subgraphs that contain all nodes except the ones that are in the partition
S_FF = FF_all.subgraph(remaining_nodes)
S_AT = AT_all.subgraph(remaining_nodes)
S_RT = RT_all.subgraph(remaining_nodes)
i += 1
for node in partition:
if node in maximum_subset:
t0 = time.time()
#Add FF nodes and edges
S_FF.add_node(node, group = group)
S_FF.add_edges_from(FF_all.in_edges(node,data=True)) # in edges
S_FF.add_edges_from(FF_all.out_edges(node,data=True)) #out edges
# Delete the nodes that we again accidentally added by importing all of the node's edges
for tmp_node in partition:
if tmp_node != node and tmp_node in S_FF:
S_FF.remove_node(tmp_node)
# Add AT nodes and edges
S_AT.add_node(node, group = group)
S_AT.add_edges_from(AT_all.in_edges(node,data=True)) # in edges
S_AT.add_edges_from(AT_all.out_edges(node,data=True)) #out edges
# Delete the nodes that we again accidentally added by importing all of the node's edges
for tmp_node in partition:
if tmp_node != node and tmp_node in S_AT:
S_AT.remove_node(tmp_node)
S_RT.add_node(node, group = group)
S_RT.add_edges_from(RT_all.in_edges(node,data=True)) # in edges
S_RT.add_edges_from(RT_all.out_edges(node,data=True)) #out edges
# Delete the nodes that we again accidentally added by importing all of the node's edges
for tmp_node in partition:
if tmp_node != node and tmp_node in S_RT:
S_RT.remove_node(tmp_node)
print "Done creating Subgraphs"
## FF measures
dFF_bin = nx.degree_centrality(S_FF)
dFF_bin_in = nx.in_degree_centrality(S_FF)
dFF_bin_out = nx.out_degree_centrality(S_FF)
#nx.load_centrality(S_FF,v=node, weight="weight")
#dFF_bin_closeness = nx.closeness_centrality(S_FF,v=node)
#dFF_bin_pagerank = nx.pagerank(S_FF, weight="weight")
dFF_total_in_groups = hp.filtered_group_volume(hp.incoming_group_volume(S_FF,node,all_other_groups),0)
dFF_total_out_groups = hp.filtered_group_volume(hp.outgoing_group_volume(S_FF,node,all_other_groups),0)
dFF_rec = hp.individual_reciprocity(S_FF,node) #number of reciprocated ties
## AT Measures
dAT_bin = nx.degree_centrality(S_AT)
dAT_bin_in = nx.in_degree_centrality(S_AT)
dAT_bin_out = nx.out_degree_centrality(S_AT)
#dAT_bin_betweeness = nx.betweenness_centrality(S_AT, k=100) #nx.load_centrality(S_AT,v=node,weight="weight")
#dAT_bin_closeness = nx.closeness_centrality(S_AT,v=node)
#dAT_bin_pagerank = nx.pagerank(S_AT,weight="weight")
dAT_total_in_groups = hp.filtered_group_volume(hp.incoming_group_volume(S_AT,node,all_other_groups),0)
dAT_total_out_groups = hp.filtered_group_volume(hp.outgoing_group_volume(S_AT,node,all_other_groups),0)
dAT_rec = hp.individual_reciprocity(S_AT,node) #number of @reciprocated ties
dAT_avg_tie = hp.individual_average_tie_strength(S_AT,node)
#Compute a combined measure which multiplies the strength of incoming ties times the centrality of that person
dAT_strength_centrality = 0
for edge in S_AT.in_edges(node,data=True):
if edge[0] in maximum_subset:
dAT_strength_centrality += edge[2]["weight"]*float(centralities[edge[0]]["ff_in_degree"]) #get the centrality of the node that the tie is incoming from
############### DEPENDENT VARIABLES ###########
dRT_in = nx.in_degree_centrality(S_RT) # At least once a retweets that a person has received
dRT_out = nx.out_degree_centrality(S_RT) # At least one retweets that a person has made
print "Done computing Measures"
try:
c_size = dFF_struc[node]['C-Size']
c_dens = dFF_struc[node]['C-Density']
c_hierarch = dFF_struc[node]['C-Hierarchy']
c_index = dFF_struc[node]['C-Index']
except:
c_size = "NaN"
c_dens = "NaN"
c_hierarch = "NaN"
c_index = "NaN"
csv_bridging_writer.writerow([project, project_name, node,
listings[node]["competing_lists"],
dFF_bin[node], dFF_bin_in[node], dFF_bin_out[node],
S_FF.in_degree(node,weight="weight"), S_FF.out_degree(node,weight="weight"),
dFF_total_in_groups, dFF_total_out_groups,
dFF_rec[node],
dFF_bin_betweeness[node],#dFF_bin_closeness[node],dFF_bin_pagerank[node],
#c_size,c_dens,c_hierarch,c_index,
dAT_bin[node], dAT_bin_in[node], dAT_bin_out[node],
S_AT.in_degree(node,weight="weight"), S_AT.out_degree(node, weight="weight"),
dAT_total_in_groups, dAT_total_out_groups,
dAT_rec[node],
dAT_bin_betweeness[node],#dAT_bin_closeness[node], dAT_bin_pagerank[node],
#dAT_struc[node]['C-Size'],dAT_struc[node]['C-Density'],dAT_struc[node]['C-Hierarchy'],dAT_struc[node]['C-Index'],
dAT_avg_tie[node],dAT_strength_centrality,
dRT_in[node],dRT_out[node],
S_RT.in_degree(node,weight="weight"), S_RT.out_degree(node,weight="weight")
])
t_delta = (time.time() - t0)
print "Count: %s Node: %s Time: %s" % (i,node,t_delta)
#Remove the nodes again
S_FF.remove_node(node)
S_AT.remove_node(node)
S_RT.remove_node(node)
def main(argv):
#Standardvalues
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
to_pajek = True
try:
opts, args = getopt.getopt(argv,"p:s:o")
except getopt.GetoptError:
print 'group_bonding.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
sys.exit(2)
for opt, arg in opts:
if opt in ("-p"):
project = arg
elif opt in ("-s"):
partitionfile = arg
elif opt in ("-o"):
to_pajek = True
else:
print 'group_bonding.py -p <project_name> -s <partitionfile> -o [if you want pajek output]'
print "##################### GROUP BONDING ########################"
print "Project %s " % project
print "Partition %s" % partitionfile
csv_writer = csv.writer(open('results/spss/group bonding/%s_group_bonding.csv' % project, 'wb'))
#Attributes for Gephi
csv_attributes = csv.writer(open('results/networks/%s_at_node_attributes.csv' % project, 'wb'))
csv_writer.writerow(["Project", "Name", "Member_count", "Competing_Lists",
"FF_Nodes", "AT_Nodes", "RT_Nodes",
"FF_Edges","AT_Edges", "RT_Edges",
"FF_bin_density", "AT_density",
"FF_bin_avg_path_length", "AT_bin_avg_path_length",
"FF_bin_clustering", "AT_bin_clustering",
"FF_reciprocity", "AT_reciprocity",
"FF_bin_transitivity", "AT_bin_transitivity",
"RT_density", "RT_total_volume"
])
# Read in the networks
FF_all = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT_all = nx.read_edgelist('data/networks/%s_solr_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT_all = nx.read_edgelist('data/networks/%s_solr_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
# Read in the partition
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
#Read in members count for each project
reader = csv.reader(open("results/stats/%s_lists_stats.csv" % project, "rb"), delimiter=",")
temp = {}
reader.next() # Skip first row
for row in reader:
temp[row[0]] = {"name":row[0],"member_count":int(row[3])}
#Read in the list-listings for individuals
listings = {}
indiv_reader = csv.reader(open(partitionfile))
for row in indiv_reader:
if listings.has_key(row[1]):
listings[row[1]]["competing_lists"] += int(row[3])
else:
listings[row[1]] = {"competing_lists": int(row[3])}
i = 0
for partition in partitions:
for node in partition:
FF_all.add_node(node, group = groups[i])
AT_all.add_node(node, group = groups[i])
RT_all.add_node(node, group = groups[i])
i += 1
#Write out to pajek for gephi visualization
if to_pajek:
#Write the attributes file
i= 0
csv_attributes.writerow(["id", "name", "type"])
for node in AT_all.nodes():
i+= 1
csv_attributes.writerow([i, node, AT_all.node[node]["group"]])
nx.write_pajek(FF_all,"results/networks/%s_FF.net" % project)
nx.write_pajek(AT_all,"results/networks/%s_AT.net" % project)
nx.write_pajek(RT_all,"results/networks/%s_RT.net" % project)
i = 0
for partition in partitions:
project_name = groups[i]
# Add up total members
member_count = 0
member_count = int(temp[project_name]["member_count"])
print "############ Calculating Project %s ############### " % project_name
# Generate a subgraph according to the partition
FF = FF_all.subgraph(partition)
AT = AT_all.subgraph(partition)
RT = RT_all.subgraph(partition)
#Additional Info for each project
FF.name = "FF_%s " % project_name
AT.name = "AT_%s " % project_name
RT.name = "RT_%s " % project_name
############### Compute Group measures ################
#Measures FF
FF_bin_density = nx.density(FF)
FF_bin_transitivity = nx.transitivity(FF)
FF_reciprocity = hp.reciprocity(FF) # Calculate the number of reciprocated ties of all ties
# Measures that need a connected graph
# In case the graph is split into multiple graphs get the biggest connected component
FF_partition = nx.weakly_connected_components(FF)[0]
FF_comp = FF.subgraph(FF_partition)
FF_bin_avg_path_length = nx.average_shortest_path_length(FF_comp)
FF_bin_clustering = nx.average_clustering(FF_comp.to_undirected(),count_zeros=False) # Networks with a lot of mutual trust have a high clustering coefficient. # Star networks with a single broadcast node and passive listeners have a low clustering coefficient.
# Measures AT
#AT_density = nx.density(AT) # deprecated since it treats the network as binarized and we lose all the interaction information
AT_density = hp.average_tie_strength(AT)
AT_bin_transitivity = nx.transitivity(AT)
AT_reciprocity = hp.reciprocity(AT)
#AT_avg_volume = hp.average_tie_strength(AT)
AT_partition = nx.weakly_connected_components(AT)[0]
AT_comp = AT.subgraph(AT_partition)
AT_bin_avg_path_length = nx.average_shortest_path_length(AT_comp)
AT_bin_clustering = nx.average_clustering(AT_comp.to_undirected())
# Dependent Variable
#RT_density = nx.density(RT) # Danger this works on the binarized graph! # TODO I need a weighted density for RT
RT_density = hp.average_tie_strength(RT)
RT_total_volume = hp.total_edge_weight(RT)
############### Output ################
csv_writer.writerow([project, project_name, member_count, listings[project_name]["competing_lists"],
len(FF.nodes()), len(AT.nodes()), len(RT.nodes()),
len(FF.edges()), len(AT.edges()), len(RT.edges()),
FF_bin_density, AT_density,
FF_bin_avg_path_length, AT_bin_avg_path_length,
FF_bin_clustering, AT_bin_clustering,
FF_reciprocity, AT_reciprocity,
FF_bin_transitivity, AT_bin_transitivity,
RT_density, RT_total_volume])
i += 1
import networkx as nx
import csv
import helper as hp
csv_writer = csv.writer(open('results/spss/whole network/whole_network.csv', 'wb'))
csv_writer.writerow(["FF_assortativity","AT_assortativity","RT_assortativity"])
# Read in the partition
tmp = hp.get_partition()
partitions = tmp[0]
groups = tmp[1]
# Read in the networks
project = "584"
FF_all = nx.read_edgelist('data/networks/%s_FF.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
AT_all = nx.read_edgelist('data/networks/%s_AT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
RT_all = nx.read_edgelist('data/networks/%s_RT.edgelist' % project, nodetype=str, data=(('weight',float),),create_using=nx.DiGraph())
# Add dummy nodes if they are missing in the networks
i = 0
for partition in partitions:
for node in partition:
FF_all.add_node(node, group = groups[i])
AT_all.add_node(node, group = groups[i])
RT_all.add_node(node, group = groups[i])
i += 1
# Compute Assortativity in Friendships
aFF = nx.attribute_assortativity_coefficient(FF_all,'group')
aAT = nx.attribute_assortativity_coefficient(AT_all,'group')
def main(argv):
# Standardvalues
partitionfile = "data/partitions/final_partitions_p100_200_0.2.csv"
project = "584"
try:
opts, args = getopt.getopt(argv, "p:s:")
except getopt.GetoptError:
print "individual_bonding.py -p <project_name> -s <partitionfile>"
sys.exit(2)
for opt, arg in opts:
if opt in ("-p"):
project = arg
elif opt in ("-s"):
partitionfile = arg
else:
print "individual_bonding.py -p <project_name> -s <partitionfile>"
print "##################### INDIVIDUAL BONDING ########################"
print "Project %s " % project
print "Partition %s" % partitionfile
csv_writer = csv.writer(open("results/spss/individual bonding/%s_individual_bonding.csv" % project, "wb"))
csv_writer.writerow(
[
"Project",
"Community",
"Person_ID",
"Place_on_list",
"FF_bin_deg",
"FF_bin_in_deg",
"FF_bin_out_deg",
"FF_vol_in",
"FF_vol_out",
"FF_bin_close",
"FF_bin_page",
"FF_rec",
"AT_bin_deg",
"AT_bin_in_deg",
"AT_bin_out_deg",
"AT_bin_close",
"AT_bin_page",
"AT_rec",
"AT_avg",
"AT_vol_in",
"AT_vol_out",
"RT_bin_deg_in",
"RT_bin_deg_out",
"RT_vol_in",
"RT_vol_out",
"RT_global_vol_in",
"RT_global_vol_out",
]
)
# Read in the list-listings for individuals
listings = {}
indiv_reader = csv.reader(open(partitionfile))
i = 0
for row in indiv_reader:
if i > int(row[2]): # in case there are less than 101 entries for a group for some reason
i = 0
i += 1
listings[row[0]] = {"group": row[1], "place": i, "competing_lists": int(row[3]), "original_place": int(row[2])}
if i == 101: # Some of the original places have shifted because of the regrouping
i = 0
# Read in Networks
FF_all = nx.read_edgelist(
"data/networks/%s_FF.edgelist" % project, nodetype=str, data=(("weight", float),), create_using=nx.DiGraph()
)
AT_all = nx.read_edgelist(
"data/networks/%s_solr_AT.edgelist" % project,
nodetype=str,
data=(("weight", float),),
create_using=nx.DiGraph(),
)
RT_all = nx.read_edgelist(
"data/networks/%s_solr_RT.edgelist" % project,
nodetype=str,
data=(("weight", float),),
create_using=nx.DiGraph(),
)
# Read in the partitions
tmp = hp.get_partition(partitionfile)
partitions = tmp[0]
groups = tmp[1]
# Add missing nodes
# We are limiting the analysis to only the maximal subset of nodes that are present in all networks
maximum_subset = []
for node in FF_all.nodes():
if AT_all.has_node(node) and RT_all.has_node(node):
maximum_subset.append(node)
else:
print node
print "Maximum Subset of nodes %s" % len(maximum_subset)
# In this case we are not adding missing nodes to the network, to produce a smaller error in the final regressions, but use the subset method.
# i = 0
# for partition in partitions:
# for node in partition:
# FF_all.add_node(node, group = groups[i])
# AT_all.add_node(node, group = groups[i])
# RT_all.add_node(node, group = groups[i])
# i += 1
i = 0
for partition in partitions:
project_name = groups[i]
print "############ Calculating Project %s ############### " % project_name
# Generate a subgraph according to the partition
FF = FF_all.subgraph(partition)
AT = AT_all.subgraph(partition)
RT = RT_all.subgraph(partition)
# Additional Info for each project
FF.name = "FF_%s " % project_name
AT.name = "AT_%s " % project_name
RT.name = "RT_%s " % project_name
# hp.draw_graph(FF)
# hp.draw_graph(AT)
# hp.draw_graph(RT)
############### Compute Individual measures ################
# Compute FF Centralities
# Works fine on binary data
dFF_bin = nx.degree_centrality(FF)
dFF_bin_in = nx.in_degree_centrality(FF) # People that follow me in the network
dFF_bin_out = nx.out_degree_centrality(FF) # People that I follow in the network
dFF_bin_closeness = nx.closeness_centrality(FF)
dFF_bin_pagerank = nx.pagerank(FF)
try:
dFF_bin_eigenvector = nx.eigenvector_centrality(FF, 10000)
except:
print "Failed to compute for FF %s " % FF.name
# if len(nx.weakly_connected_components(FF)) > 1:
# FF_comp = FF.subgraph(nx.weakly_connected_components(FF)[0])
# dFF_bin_eigenvector = nx.eigenvector_centrality(FF_comp)
# else:
# Compute AT Centralities
# Centralities are problematic on weighted data, since we are losing all the information
dAT_bin = nx.degree_centrality(AT) # binary
dAT_bin_in = nx.in_degree_centrality(AT) # binary
dAT_bin_out = nx.out_degree_centrality(AT) # binary
dAT_bin_closeness = nx.closeness_centrality(AT) # binary
dAT_bin_pagerank = nx.pagerank(AT)
try:
dAT_bin_eigenvector = nx.eigenvector_centrality(AT, 10000)
except:
print "Failed to compute for AT %s " % AT.name
# if len(nx.weakly_connected_components(AT)) > 1:
# AT_comp = AT.subgraph(nx.weakly_connected_components(AT)[0])
# dFF_bin_eigenvector = nx.eigenvector_centrality(AT_comp)
# else:
#
# Tie strengths
dAT_avg_tie = hp.individual_average_tie_strength(AT)
dAT_rec = hp.individual_reciprocity(AT)
dFF_rec = hp.individual_reciprocity(FF)
# Dependent Variable see csv below
# Deprecated since in networkx centrality works only on binary edges
dRT_in = nx.in_degree_centrality(RT) # At least once a retweets that a person has received
dRT_out = nx.out_degree_centrality(RT) # At least one retweets that a person has made
############### Output ################
for node in dFF_bin.keys():
if node in maximum_subset:
csv_writer.writerow(
[
project,
project_name,
node,
listings[node]["place"],
dFF_bin[node],
dFF_bin_in[node],
dFF_bin_out[node],
FF.in_degree(node, weight="weight"),
FF.out_degree(node, weight="weight"),
dFF_bin_closeness[node],
dFF_bin_pagerank[node],
dFF_rec[node],
dAT_bin[node],
dAT_bin_in[node],
dAT_bin_out[node],
dAT_bin_closeness[node],
dAT_bin_pagerank[node],
dAT_rec[node],
dAT_avg_tie[node],
AT.in_degree(node, weight="weight"),
AT.out_degree(node, weight="weight"),
dRT_in[node],
dRT_out[node],
RT.in_degree(node, weight="weight"),
RT.out_degree(node, weight="weight"),
RT_all.in_degree(node, weight="weight"),
RT_all.out_degree(node, weight="weight"),
]
)
i += 1
