def export_HI_mutation_effects(self):
from io_util import write_json, read_json
# make a tab delimited file with the mutaton effects
table_effects = []
HI_mutation_effects_fname = self.output_path+self.prefix+self.resolution_prefix+'HI_mutation_effects.tsv'
with open(HI_mutation_effects_fname, 'w') as ofile:
for mut, val in self.mutation_effects.iteritems():
mut_str = '/'.join([x[1] for x in self.mutation_clusters[mut]])
ofile.write(mut_str+'\t'+str(np.round(val,4))+'\t'+str(self.mutation_counter[mut])+'\n')
if val>0.001:
table_effects.append((mut_str,round(val,2)))
# export mutation effects to JSON
try: #they are added to a larger json fir different lineages and resultions
display_effects = read_json(self.auspice_HI_display_mutations)
except: # if file doesn't yet exist, create and empty dictionary
display_effects = {}
# effects for use in the js are indext by first mutation in cluster
model_effects = {mut[0]+':'+mut[1]:val for mut, val in
self.mutation_effects.iteritems() if val>0.01}
write_json(model_effects, self.auspice_HI_fname)
if self.virus_type not in display_effects: display_effects[self.virus_type]={}
table_effects.sort(key = lambda x:x[1], reverse=True)
display_effects[self.virus_type][self.resolution] = table_effects
write_json(display_effects, self.auspice_HI_display_mutations)
def export(self, path = '', extra_attr = ['aa_muts']):
from Bio import Seq
from itertools import izip
timetree_fname = path+'tree.json'
sequence_fname = path+'sequences.json'
tree_json = tree_to_json(self.tree.root, extra_attr=extra_attr)
write_json(tree_json, timetree_fname, indent=None)
elems = {}
elems['root'] = {}
elems['root']['nuc'] = "".join(self.tree.root.sequence)
for prot in self.proteins:
tmp = str(self.proteins[prot].extract(Seq.Seq(elems['root']['nuc'])))
#elems['root'][prot] = str(Seq.translate(tmp.replace('---', 'NNN'))).replace('X','-')
elems['root'][prot] = str(Seq.translate(tmp.replace('-', 'N'))).replace('X','-')
for node in self.tree.find_clades():
if hasattr(node, "clade") and hasattr(node, "sequence"):
elems[node.clade] = {}
elems[node.clade]['nuc'] = {pos:state for pos, (state, ancstate) in
enumerate(izip(node.sequence, self.tree.root.sequence)) if state!=ancstate}
for node in self.tree.find_clades():
if hasattr(node, "clade") and hasattr(node, "translations"):
for prot in self.proteins:
elems[node.clade][prot] = {pos:state for pos, (state, ancstate) in
enumerate(izip(node.translations[prot], elems['root'][prot])) if state!=ancstate}
write_json(elems, sequence_fname, indent=None)
def load_viruses(self, aln_fname=None, years_back=3, viruses_per_month=50):
if config['virus']:
from H3N2_filter import H3N2_filter as virus_filter
fasta_fields = config['fasta_fields']
if 'force_include' in config and os.path.isfile(
config['force_include']):
with open(config['force_include']) as force_include_file:
force_include_strains = [
line.strip() for line in force_include_file
]
print "found ", len(
force_include_strains), "strains to include"
else:
force_include_strains = []
else:
from virus_filter import virus_filter as virus_filter
fasta_fields = {0: 'strain'}
if aln_fname is None: aln_fname = config['alignment_file']
my_filter = virus_filter(aln_fname, fasta_fields)
my_filter.filter()
my_filter.subsample(years_back,
viruses_per_month,
prioritize=force_include_strains,
all_priority=True,
region_specific=config['max_global'])
self.viruses = my_filter.virus_subsample
write_json(self.viruses, self.initial_virus_fname)
def estimate_frequencies(self, tasks = ['mutations','genotypes', 'clades', 'tree']):
import bernoulli_frequency as freq_est
plot=False
freq_est.flu_stiffness = config['frequency_stiffness']
freq_est.time_interval = config['time_interval']
freq_est.pivots_per_year = config['pivots_per_year']
freq_est.relevant_pos_cutoff = 0.1
if 'mutations' in tasks or 'genotypes' in tasks:
self.frequencies['mutations'], relevant_pos = freq_est.all_mutations(self.tree, config['aggregate_regions'],
threshold = config['min_mutation_count'], plot=plot)
if 'genotypes' in tasks:
self.frequencies['genotypes'] = freq_est.all_genotypes(self.tree, config['aggregate_regions'], relevant_pos)
#if 'specieshost' in tasks:
#self.frequencies['specieshost'] = freq_est.all_genotypes(self.tree, config['aggregate_hosts'], relevant_pos)
if 'clades' in tasks:
self.frequencies['clades'] = freq_est.all_clades(self.tree, config['clade_designations'],
config['aggregate_regions'], plot)
if any(x in tasks for x in ['mutations','clades', 'genotypes']):
write_json(self.frequencies, self.frequency_fname)
if 'tree' in tasks:
for region_label, regions in config['aggregate_regions']:
print "--- "+"adding frequencies to tree "+region_label+ " " + time.strftime("%H:%M:%S") + " ---"
freq_est.estimate_tree_frequencies(self.tree, threshold = 10, regions=regions, region_name=region_label)
def export_HI_mutation_effects(self):
from io_util import write_json, read_json
# make a tab delimited file with the mutaton effects
table_effects = []
HI_mutation_effects_fname = self.output_path + self.prefix + self.resolution_prefix + 'HI_mutation_effects.tsv'
with open(HI_mutation_effects_fname, 'w') as ofile:
for mut, val in self.mutation_effects.iteritems():
mut_str = '/'.join([x[1] for x in self.mutation_clusters[mut]])
ofile.write(mut_str + '\t' + str(np.round(val, 4)) + '\t' +
str(self.mutation_counter[mut]) + '\n')
if val > 0.001:
table_effects.append((mut_str, round(val, 2)))
# export mutation effects to JSON
try: #they are added to a larger json fir different lineages and resultions
display_effects = read_json(self.auspice_HI_display_mutations)
except: # if file doesn't yet exist, create and empty dictionary
display_effects = {}
# effects for use in the js are indext by first mutation in cluster
model_effects = {
mut[0] + ':' + mut[1]: val
for mut, val in self.mutation_effects.iteritems() if val > 0.01
}
write_json(model_effects, self.auspice_HI_fname)
if self.virus_type not in display_effects:
display_effects[self.virus_type] = {}
table_effects.sort(key=lambda x: x[1], reverse=True)
display_effects[self.virus_type][self.resolution] = table_effects
write_json(display_effects, self.auspice_HI_display_mutations)
def export_diversity(self, fname='entropy.json', indent=None):
'''
write the alignment entropy of each alignment (nucleotide and translations) to file
'''
if not hasattr(self, "entropy"):
self.diversity_statistics()
entropy_json = {}
for feat in self.entropy:
S = [max(0, round(x, 4)) for x in self.entropy[feat]]
n = len(S)
if feat == 'nuc':
entropy_json[feat] = {
'pos': range(0, n),
'codon': [x // 3 for x in range(0, n)],
'val': S
}
else:
entropy_json[feat] = {
'pos': [x for x in self.proteins[feat]][::3],
'codon': [(x - self.proteins[feat].start) // 3
for x in self.proteins[feat]][::3],
'val':
S
}
write_json(entropy_json, fname, indent=indent)
def export(self,
path='',
extra_attr=['aa_muts', 'clade'],
plain_export=10,
indent=None,
write_seqs_json=True):
'''
export the tree data structure along with the sequence information as
json files for display in web browsers.
parameters:
path -- path (incl prefix) to which the output files are written.
filenames themselves are standardized to *tree.json and *sequences.json
extra_attr -- attributes of tree nodes that are exported to json
plain_export -- store sequences are plain strings instead of
differences to root if number of differences exceeds
len(seq)/plain_export
'''
from Bio import Seq
from itertools import izip
timetree_fname = path + '_tree.json'
sequence_fname = path + '_sequences.json'
tree_json = tree_to_json(self.tree.root, extra_attr=extra_attr)
write_json(tree_json, timetree_fname, indent=indent)
# prepare a json with sequence information to export.
# first step: add the sequence & translations of the root as string
elems = {}
elems['root'] = {}
elems['root']['nuc'] = "".join(self.tree.root.sequence)
for prot, seq in self.tree.root.translations.iteritems():
elems['root'][prot] = seq
# add sequence for every node in tree. code as difference to root
# or as full strings.
for node in self.tree.find_clades():
if hasattr(node, "clade"):
elems[node.clade] = {}
# loop over proteins and nucleotide sequences
for prot, seq in [('nuc', "".join(node.sequence))
] + node.translations.items():
differences = {
pos: state
for pos, (state, ancstate) in enumerate(
izip(seq, elems['root'][prot]))
if state != ancstate
}
if plain_export * len(differences) <= len(seq):
elems[node.clade][prot] = differences
else:
elems[node.clade][prot] = seq
if write_seqs_json:
write_json(elems, sequence_fname, indent=indent)
def export_diversity(self, fname = 'entropy.json'):
if not hasattr(self, "entropy"):
self.diversity_statistics()
entropy_json = {}
for feat in self.entropy:
S = [max(0,round(x,4)) for x in self.entropy[feat]]
n = len(S)
if feat=='nuc':
entropy_json[feat] = {'pos':range(0,n), 'codon':[x//3 for x in range(0,n)], 'val':S}
else:
entropy_json[feat] = {'pos':[x for x in self.proteins[feat]][::3],
'codon':[(x-self.proteins[feat].start)//3 for x in self.proteins[feat]][::3], 'val':S}
write_json(entropy_json, fname, indent=None)
def to_json(self, filename):
"""Export fitness model parameters, data, and accuracy statistics to JSON.
"""
# Convert predictor parameters to a data frame to easily export as
# records.
params_df = pd.DataFrame({
"predictor": self.predictors,
"param": self.model_params.tolist(),
"global_sd": self.global_sds.tolist()
})
correlation_null, correlation_raw, correlation_rel = self.get_correlation(
)
mcc = get_matthews_correlation_coefficient_for_data_frame(
self.pred_vs_true_df)
# Do not try to export titer data if it was provided to the model.
predictor_kwargs = self.predictor_kwargs.copy()
if "transform" in predictor_kwargs:
predictor_kwargs["transform"] = str(predictor_kwargs["transform"])
if "titers" in predictor_kwargs:
del predictor_kwargs["titers"]
data = {
"params": params_df.to_dict(orient="records"),
"predictor_kwargs": predictor_kwargs,
"data": self.pred_vs_true_df.to_dict(orient="records"),
"accuracy": {
"clade_error": self.clade_fit(self.model_params),
"correlation_rel": correlation_rel[0],
"mcc": mcc
},
"delta_time": self.delta_time,
"step_size": self.timepoint_step_size,
"end_date": self.end_date
}
predictor_arrays = {}
for key in self.predictor_arrays:
predictor_arrays[key] = self.predictor_arrays[key].tolist()
data["predictor_arrays"] = predictor_arrays
freq_arrays = {}
for key in self.freq_arrays:
freq_arrays[key] = self.freq_arrays[key].tolist()
data["freq_arrays"] = freq_arrays
write_json(data, filename)
def main():
print "--- Tree LBI at " + time.strftime("%H:%M:%S") + " ---"
tree = json_to_dendropy(read_json('data/tree_refine.json'))
print "calculate local branching index"
T2 = get_average_T2(tree, 365)
tau = T2 * 2**-4
print "avg pairwise distance:", T2
print "memory time scale:", tau
calc_LBI(tree, tau=tau)
write_json(dendropy_to_json(tree.seed_node), "data/tree_LBI.json")
def to_json(self, filename):
"""Export fitness model parameters, data, and accuracy statistics to JSON.
"""
# Convert predictor parameters to a data frame to easily export as
# records.
params_df = pd.DataFrame({
"predictor": self.predictors,
"param": self.model_params.tolist(),
"global_sd": self.global_sds.tolist()
})
correlation_null, correlation_raw, correlation_rel = self.get_correlation()
mcc = get_matthews_correlation_coefficient_for_data_frame(self.pred_vs_true_df)
# Do not try to export titer data if it was provided to the model.
predictor_kwargs = self.predictor_kwargs.copy()
if "transform" in predictor_kwargs:
predictor_kwargs["transform"] = str(predictor_kwargs["transform"])
if "titers" in predictor_kwargs:
del predictor_kwargs["titers"]
data = {
"params": params_df.to_dict(orient="records"),
"predictor_kwargs": predictor_kwargs,
"data": self.pred_vs_true_df.to_dict(orient="records"),
"accuracy": {
"clade_error": self.clade_fit(self.model_params),
"correlation_rel": correlation_rel[0],
"mcc": mcc
},
"delta_time": self.delta_time,
"step_size": self.timepoint_step_size,
"end_date": self.end_date
}
predictor_arrays = {}
for key in self.predictor_arrays:
predictor_arrays[key] = self.predictor_arrays[key].tolist()
data["predictor_arrays"] = predictor_arrays
freq_arrays = {}
for key in self.freq_arrays:
freq_arrays[key] = self.freq_arrays[key].tolist()
data["freq_arrays"] = freq_arrays
write_json(data, filename)
def main(params):
import time
from io_util import read_json
from io_util import write_json
from tree_util import json_to_dendropy, dendropy_to_json
print "--- Start fitness model optimization at " + time.strftime("%H:%M:%S") + " ---"
tree_fname = "data/tree_refine.json"
tree = json_to_dendropy(read_json(tree_fname))
fm = fitness_model(tree, predictors=params["predictors"], verbose=1)
fm.predict(niter=params["niter"])
out_fname = "data/tree_fitness.json"
write_json(dendropy_to_json(tree.seed_node), out_fname)
return out_fname
def main(params):
import time
from io_util import read_json
from io_util import write_json
from tree_util import json_to_dendropy, dendropy_to_json
print "--- Start fitness model optimization at " + time.strftime("%H:%M:%S") + " ---"
tree_fname='data/tree_refine.json'
tree = json_to_dendropy(read_json(tree_fname))
fm = fitness_model(tree, predictors = params['predictors'], verbose=1)
fm.predict(niter = params['niter'])
out_fname = "tree_fitness.json"
write_json(dendropy_to_json(tree.seed_node), out_fname)
return out_fname
def main(in_fname='tree_refine.json', tree=True):
print "--- Mutational tolerance at " + time.strftime("%H:%M:%S") + " ---"
viruses = read_json(in_fname)
if tree:
viruses = json_to_dendropy(viruses)
assign_fitness(viruses)
if tree:
out_fname = "tree_tolerance.json"
write_json(dendropy_to_json(viruses.seed_node), out_fname)
else:
out_fname = "virus_tolerance.json"
write_json(viruses, out_fname)
return out_fname, viruses
def main(in_fname='data/tree_refine.json', tree=True):
print "--- Mutational tolerance at " + time.strftime("%H:%M:%S") + " ---"
viruses = read_json(in_fname)
if tree:
viruses = json_to_dendropy(viruses)
assign_fitness(viruses)
if tree:
out_fname = "data/tree_tolerance.json"
write_json(dendropy_to_json(viruses.seed_node), out_fname)
else:
out_fname = "data/virus_tolerance.json"
write_json(viruses, out_fname)
return out_fname, viruses
def main(tree_fname = 'data/tree_refine.json'): print "--- Testing predictor evaluations ---" tree = json_to_dendropy(read_json(tree_fname)) print "Calculating epitope distances" calc_epitope_distance(tree) print "Calculating nonepitope distances" calc_nonepitope_distance(tree) print "Calculating LBI" # calc_LBI(tree) print "Writing decorated tree" out_fname = "data/tree_predictors.json" write_json(dendropy_to_json(tree.seed_node), out_fname) return out_fname
def export_diversity(self, fname='entropy.json'):
if not hasattr(self, "entropy"):
self.diversity_statistics()
entropy_json = {}
for feat in self.entropy:
S = [max(0, round(x, 4)) for x in self.entropy[feat]]
n = len(S)
if feat == 'nuc':
entropy_json[feat] = {
'pos': range(0, n),
'codon': [x // 3 for x in range(0, n)],
'val': S
}
else:
entropy_json[feat] = {
'pos': [x for x in self.proteins[feat]][::3],
'codon': [(x - self.proteins[feat].start) // 3
for x in self.proteins[feat]][::3],
'val':
S
}
write_json(entropy_json, fname, indent=None)
def load_viruses(self, aln_fname = None, years_back=3, viruses_per_month=50):
if config['virus']:
from H9_filter import H9_filter as virus_filter
fasta_fields = config['fasta_fields']
if 'force_include' in config and os.path.isfile(config['force_include']):
with open(config['force_include']) as force_include_file:
force_include_strains = [line.strip() for line in force_include_file]
print "found ",len(force_include_strains),"strains to include"
else:
force_include_strains = []
else:
from virus_filter import virus_filter as virus_filter
fasta_fields = {0:'strain'}
if aln_fname is None: aln_fname = config['alignment_file']
my_filter = virus_filter(aln_fname, fasta_fields)
my_filter.filter()
my_filter.subsample(years_back, viruses_per_month, prioritize = force_include_strains,
all_priority = True, region_specific=config['max_global'])
self.viruses = my_filter.virus_subsample
write_json(self.viruses, self.initial_virus_fname)
def export_to_auspice(self,
tree_fields=[],
tree_pop_list=[],
annotations=[],
seq='aa'):
from tree_util import dendropy_to_json, all_descendants
from io_util import write_json, read_json
print "--- Streamline at " + time.strftime("%H:%M:%S") + " ---"
# Move sequence data to separate file
print "Writing sequences"
elems = {}
for node in self.tree:
if hasattr(node, "clade") and hasattr(node, "seq"):
elems[node.clade] = {}
elems[node.clade]['nuc'] = {
pos: state
for pos, (state, ancstate) in enumerate(
izip(node.seq, self.tree.seed_node.seq))
if state != ancstate
}
for anno, aa_seq in node.aa_seq.iteritems():
elems[node.clade][anno] = {
pos: state
for pos, (state, ancstate) in enumerate(
izip(aa_seq, self.tree.seed_node.aa_seq[anno]))
if state != ancstate
}
elems['root'] = {}
elems['root']['nuc'] = self.tree.seed_node.seq
for anno, aa_seq in self.tree.seed_node.aa_seq.iteritems():
elems['root'][anno] = aa_seq
write_json(elems, self.auspice_sequences_fname, indent=None)
print "Writing tree"
self.tree_json = dendropy_to_json(self.tree.seed_node, tree_fields)
for node in all_descendants(self.tree_json):
for attr in tree_pop_list:
if attr in node:
node.pop(attr, None)
if "freq" in node:
for reg in node["freq"]:
try:
node["freq"][reg] = [
round(x, 3) for x in node["freq"][reg]
]
except:
node["freq"][reg] = "undefined"
if hasattr(self, "clade_designations"):
# find basal node of clade and assign clade x and y values based on this basal node
clade_present = {}
clade_xval = {}
clade_yval = {}
if hasattr(self.tree.seed_node, "freq"):
self.frequencies['clades'] = {
reg: {
"pivots": list(self.tree.seed_node.pivots)
}
for reg in self.tree.seed_node.freq
}
for clade, gt in self.clade_designations.iteritems():
if clade in annotations:
print "Annotating clade", clade
tmp_nodes = sorted(
(node for node in self.tree.postorder_node_iter()
if not node.is_leaf() and all([
node.aa_seq[gene][pos - 1] == aa
for gene, pos, aa in gt
])),
key=lambda node: node.xvalue)
if len(tmp_nodes):
clade_present[clade] = True
base_node = tmp_nodes[0]
clade_xval[clade] = base_node.xvalue
clade_yval[clade] = base_node.yvalue
if hasattr(base_node, 'freq'):
for region in base_node.freq:
try:
self.frequencies["clades"][region][
clade.lower()] = [
round(x, 3)
for x in base_node.freq[region]
]
print "added frequencies", region, clade
except:
print base_node.freq[region]
else:
clade_present[clade] = False
print "clade", clade, gt, "not in tree"
# append clades, coordinates and genotype to meta
self.tree_json["clade_annotations"] = [
(clade, clade_xval[clade], clade_yval[clade],
"/".join([gene + ':' + str(pos) + aa
for gene, pos, aa in gt]))
for clade, gt in self.clade_designations.iteritems()
if clade in annotations and clade_present[clade] == True
]
write_json(self.tree_json, self.auspice_tree_fname, indent=None)
try:
read_json(self.auspice_tree_fname)
except:
print "Read failed, rewriting with indents"
write_json(self.tree_json, self.auspice_tree_fname, indent=1)
# Write out frequencies
if hasattr(self, 'frequencies'):
if not hasattr(self, 'aa_entropy') and not hasattr(
self, 'nuc_entropy'):
self.determine_variable_positions()
if hasattr(self, 'aa_entropy'):
self.frequencies["entropy"] = {}
self.frequencies["location"] = {}
for anno, alnS in self.aa_entropy.iteritems():
self.frequencies["location"][anno] = [int(self.cds[anno].location.start),\
int(self.cds[anno].location.start)]
self.frequencies["entropy"][anno] = [[
pos, S, muts
] for pos, S, muts in izip(
xrange(alnS.shape[0]), alnS,
self.variable_aa_identities[anno])]
elif seq == 'nuc' and hasattr(self, 'nuc_entropy'):
self.frequencies["entropy"] = [
[pos, S, muts] for pos, S, muts in izip(
xrange(self.nuc_entropy.shape[0]), self.nuc_entropy,
self.variable_nuc_identities)
]
write_json(self.frequencies, self.auspice_frequency_fname)
# Write out metadata
print "Writing out metadata"
meta = {}
meta["updated"] = time.strftime("X%d %b %Y").replace('X0',
'X').replace(
'X', '')
try:
from pygit2 import Repository, discover_repository
current_working_directory = os.getcwd()
repository_path = discover_repository(current_working_directory)
repo = Repository(repository_path)
commit_id = repo[repo.head.target].id
meta["commit"] = str(commit_id)
except ImportError:
meta["commit"] = "unknown"
if hasattr(self, "date_region_count"):
meta["regions"] = self.regions
meta["virus_stats"] = [
[str(y) + '-' + str(m)] +
[self.date_region_count[(y, m)][reg] for reg in self.regions]
for y, m in sorted(self.date_region_count.keys())
]
write_json(meta, self.auspice_meta_fname, indent=None)
self.export_accession_numbers()
def export_to_auspice(self, tree_fields = [], tree_pop_list = [], annotations = [], seq='aa'):
from tree_util import dendropy_to_json, all_descendants
from io_util import write_json, read_json
print time.strftime("%H:%M:%S") + " ---"
# Move sequence data to separate file
print "Writing sequences"
elems = {}
for node in self.tree:
if hasattr(node, "clade") and hasattr(node, "seq"):
elems[node.clade] = {}
elems[node.clade]['nuc'] = {pos:state for pos, (state, ancstate) in
enumerate(izip(node.seq, self.tree.seed_node.seq)) if state!=ancstate}
for anno, aa_seq in node.aa_seq.iteritems():
elems[node.clade][anno] = {pos:state for pos, (state, ancstate) in
enumerate(izip(aa_seq, self.tree.seed_node.aa_seq[anno])) if state!=ancstate}
elems['root'] = {}
elems['root']['nuc'] = self.tree.seed_node.seq
for anno, aa_seq in self.tree.seed_node.aa_seq.iteritems():
elems['root'][anno] = aa_seq
write_json(elems, self.auspice_sequences_fname, indent=None)
print "Writing tree"
self.tree_json = dendropy_to_json(self.tree.seed_node, tree_fields)
for node in all_descendants(self.tree_json):
for attr in tree_pop_list:
if attr in node:
node.pop(attr, None)
if "freq" in node:
for reg in node["freq"]:
try:
node["freq"][reg] = [round(x,3) for x in node["freq"][reg]]
except:
node["freq"][reg] = "undefined"
if hasattr(self,"clade_designations"):
# find basal node of clade and assign clade x and y values based on this basal node
clade_present = {}
clade_xval = {}
clade_yval = {}
self.frequencies['clades'] = {reg:{"pivots":list(self.tree.seed_node.pivots)}
for reg in self.tree.seed_node.freq}
for clade, gt in self.clade_designations.iteritems():
if clade in annotations:
print "Annotating clade", clade
tmp_nodes = sorted((node for node in self.tree.postorder_node_iter()
if not node.is_leaf() and all([node.aa_seq[gene][pos-1]==aa for gene, pos, aa in gt])),
key=lambda node: node.xvalue)
if len(tmp_nodes):
clade_present[clade] = True
base_node = tmp_nodes[0]
clade_xval[clade] = base_node.xvalue
clade_yval[clade] = base_node.yvalue
for region in base_node.freq:
try:
self.frequencies["clades"][region][clade.lower()] = [round(x,3) for x in base_node.freq[region]]
print "added frequencies",region, clade
except:
print base_node.freq[region]
else:
clade_present[clade] = False
print "clade",clade, gt, "not in tree"
# append clades, coordinates and genotype to meta
self.tree_json["clade_annotations"] = [(clade, clade_xval[clade],clade_yval[clade],
"/".join([gene+':'+str(pos)+aa for gene, pos, aa in gt]))
for clade, gt in self.clade_designations.iteritems()
if clade in annotations and clade_present[clade] == True]
write_json(self.tree_json, self.auspice_tree_fname, indent=None)
try:
read_json(self.auspice_tree_fname)
except:
print "Read failed, rewriting with indents"
write_json(self.tree_json, self.auspice_tree_fname, indent=1)
# Include genotype frequencies
if hasattr(self, 'frequencies'):
if not hasattr(self, 'aa_entropy') and not hasattr(self, 'nuc_entropy'):
self.determine_variable_positions()
if hasattr(self, 'aa_entropy'):
self.frequencies["entropy"] = {}
self.frequencies["location"] = {}
for anno, alnS in self.aa_entropy.iteritems():
self.frequencies["location"][anno] = [int(self.cds[anno].location.start),\
int(self.cds[anno].location.start)]
self.frequencies["entropy"][anno] = [ [pos, S, muts] for pos,S,muts in
izip(xrange(alnS.shape[0]), alnS,self.variable_aa_identities[anno]) ]
elif seq=='nuc' and hasattr(self, 'nuc_entropy'):
self.frequencies["entropy"] = [ [pos, S, muts] for pos,S,muts in
izip(xrange(self.nuc_entropy.shape[0]), self.nuc_entropy,self.variable_nuc_identities) ]
write_json(self.frequencies, self.auspice_frequency_fname)
print("WRITEEN")
# Write out metadata
print "Writing out metadata"
meta = {}
meta["updated"] = time.strftime("X%d %b %Y").replace('X0','X').replace('X','')
try:
from pygit2 import Repository, discover_repository
current_working_directory = os.getcwd()
repository_path = discover_repository(current_working_directory)
repo = Repository(repository_path)
commit_id = repo[repo.head.target].id
meta["commit"] = str(commit_id)
except ImportError:
meta["commit"] = "unknown"
if hasattr(self,"date_region_count"):
meta["regions"] = self.regions
meta["virus_stats"] = [ [str(y)+'-'+str(m)] + [self.date_region_count[(y,m)][reg] for reg in self.regions]
for y,m in sorted(self.date_region_count.keys()) ]
write_json(meta, self.auspice_meta_fname, indent=0)
def refine_tree(self): import tree_refine tree_refine.main(self.tree, self.viruses, config['outgroup'], config['cds']) write_json(dendropy_to_json(self.tree.seed_node), self.intermediate_tree_fname)
def align(self): import virus_align self.viruses = virus_align.main(self.viruses) out_fname = 'virus_align.json' write_json(self.viruses, out_fname)
def clean_viruses(self): import virus_clean self.viruses = virus_clean.main(self.viruses) write_json(self.viruses, self.clean_virus_fname)