def dump_tree(root_node):
for pre, _, node in RenderTree(root_node, style=AsciiStyle()):
print("%s%s" % (pre,
(str(node.name.id) + "-" + str(node.name.status))))
pass
def print_tree(tree):
for pre, fill, node in RenderTree(tree, style=AsciiStyle()):
print("{0}{1} [{2}]".format(pre, node.label, node.module))
if node.params != '':
kwargs = split_params(node.params)
for k,v in kwargs.items():
print("{0}{1}: {2}".format(fill, k, v))
print("{0}".format(fill))
def highlight_node(name, node, color='red'):
for pre, fill, node in RenderTree(node, style=AsciiStyle()):
if name in node.name:
start = node.name.find(name)
end = start + len(name)
print pre + node.name[:start] + bcolors.RED + node.name[start:end] + bcolors.ENDC + node.name[end:]
else:
print("%s%s" % (pre, node.name))
def __init__(self, train_data, train_target):
"""put the data in the model"""
self._train_data = train_data
self._train_target = train_target
self._target_feature = train_target.to_frame().columns[0]
classes = []
self._tree = self._make_ID3_tree(self._train_data, self._train_target,
None, "root")
print RenderTree(self._tree, style=AsciiStyle())
def startt():
start.destroy()
print("SON OF MANARCHY")
print("type 'help' for help\n")
print(RenderTree(wake_up, style=AsciiStyle()).by_attr())
user.node = suspicious.name
# print(wake_up.statement)
# print(all_items, all_characters)
prompt_command()
def pretty_ast(ast: Node) -> str:
"""Create a nice string representation of an AST.
Parameters
----------
ast: Node
Tree to be pretty printed.
Returns
-------
pretty_tree: str
Prettified tree ready to print.
"""
try:
ast.full_name
return RenderTree(ast, style=AsciiStyle()).by_attr('full_name')
except AttributeError:
return RenderTree(ast, style=AsciiStyle()).by_attr('name')
def tree(self, sents, lang='en', engine='stanza'):
"""
$ python -m sagas.nlu.anal tree 'Nosotros estamos en la escuela.' es stanza
:param sents:
:param lang:
:param engine:
:return:
"""
tree_root = build_anal_tree(sents, lang, engine)
print(
RenderTree(tree_root, style=AsciiStyle()).by_attr(
lambda n:
f"{n.dependency_relation}: {n.text} ({n.upos.lower()})"))
def print_tree_tab_structure(self, notes=""):
"""A debugging function for logging state of the tree tabs"""
with open("qutebrowser_treetab.log", 'a') as f:
f.write("%s" % notes)
cur_tab = self.tabBar()._current_tab()
for pre, _, node in RenderTree(self.tree_root, style=AsciiStyle()):
name = node.name.tab_id if node.name else 'ROOT'
curr = '*' if cur_tab and cur_tab.node == node else ''
f.write("%s%s%s\n" % (pre, name, curr))
f.write("\n")
def render_tree(tree_root, max_depth, tree_ascii=False):
style = AsciiStyle() if tree_ascii else ContStyle()
output = []
for child in tree_root.children:
lines = []
for fill, _, node in RenderTree(child, style=style):
if max_depth and node.depth > max_depth:
continue
lines.append(u"{}{} ({}{})".format(
fill,
node.pip_string,
node.version,
", cyclic" if hasattr(node, "cyclic") else "",
))
output += lines
return "\n".join(output)
def print_bookmark_tree(root: Node):
'''
Print a nested bookmark tree from a root tree `Node`, folders first
bookmark with urls second.
'''
for pre, _, node in RenderTree(root, style=AsciiStyle()):
if node.node_type == Folder:
required = ('folder_name', )
args = [getattr(node, key) for key in required]
args[0] = f'[F] {node.id}\t{args[0]}'
elif node.node_type == Bookmark:
required = ('title', 'url')
args = [getattr(node, key) for key in required]
args[0] = f'[B] {node.id}\t{args[0]}'
print(f'{pre}{" ".join(args)}')
def main(logger_, cache_dir, start_month, output_dir, refresh=True):
global logger
logger = logger_
ensure_directory(cache_dir)
mbox_paths = mboxes_download(cache_dir, start_month, refresh)
root, lookup, releases = mboxes_process(mbox_paths)
discussions = discussions_find(root, lookup, releases)
discussions = discussions_reduce(discussions)
export = discussions_export(lookup, releases, discussions)
ensure_directory(output_dir)
with open(path.join(output_dir, 'mail.yaml'), 'w') as outfile:
yaml.safe_dump(export, outfile)
if logger.isEnabledFor(logging.DEBUG):
from anytree import RenderTree, AsciiStyle
print(RenderTree(root, style=AsciiStyle()).by_attr())
discussion_print(export)
def draw(self, translate=False):
"""
>>> from sagas.nlu.anal import build_anal_tree, Doc, AnalNode
>>> f=build_anal_tree('Η σαλάτα μου έχει τομάτα.', 'el', 'stanza')
>>> f.draw(True)
:param translate:
:return:
"""
def additional(n):
addons = [str(n.index), n.lemma]
if n.upos == 'VERB':
if n.personal_pronoun_repr:
addons.append(n.personal_pronoun_repr)
if n.dependency_relation != 'punct':
if translate:
from sagas.nlu.translator import get_contrast
addons.append(get_contrast(n.text, n.lang))
return '; '.join(addons)
print(
RenderTree(self, style=AsciiStyle()).by_attr(
lambda n: f"{n.dependency_relation}: {n.text} "
f"({additional(n)}, {n.upos.lower()})"))
def create_tree(lines_str):
lines = lines_str.split("\n")
previous_sign_index = 0
parent_node = Node(lines[0])
reference_node = parent_node
for i in range(1, len(lines)):
line = lines[i]
level = 0
if sign1 in line:
sign1_index = line.index(sign1) + 3
level = (sign1_index - previous_sign_index) / eachLevelDistance
previous_sign_index = sign1_index
line = line[sign1_index:len(line)]
elif sign2 in line:
sign2_index = line.index(sign2) + 3
level = (sign2_index - previous_sign_index) / eachLevelDistance
previous_sign_index = sign2_index
line = line[sign2_index:len(line)]
reference_node = add_to_tree(reference_node, line, level)
logging.debug("----DependencyTree-----\n" + RenderTree(parent_node, style=AsciiStyle()).by_attr())
return parent_node
def digest_verb(sents, lang, engine='stanza'):
f = build_anal_tree(sents, lang, engine)
words = findall_by_attr(f, name='upos', value='VERB')
if words:
print(sents, len(words))
rs = []
for w in words:
rs.append(proc_verb_subs(w))
def proc_text(t):
if lang in ('ko'):
return get_contrast(t, lang)
return t
succ = any(rs)
cl = 'blue' if succ else 'white'
tc.emp(
cl,
RenderTree(f, style=AsciiStyle()).by_attr(
lambda n:
f"{n.dependency_relation}: {proc_text(n.text)} {n.upos}"))
return succ
return False
def main():
print()
aux = argv[1].split(".")
if aux[-1] != "tpp":
raise IOError("Not a .tpp file!")
data = open(argv[1])
source_file = data.read()
parser.parse(source_file)
try:
if root and root.children != ():
print("\n-------------OK--------------")
print("Generating Syntax Tree Graph...")
DotExporter(root).to_picture(argv[1] + ".ast.png")
UniqueDotExporter(root).to_picture(argv[1] + ".unique.ast.png")
DotExporter(root).to_dotfile(argv[1] + ".ast.dot")
UniqueDotExporter(root).to_dotfile(argv[1] + ".unique.ast.dot")
print(RenderTree(root, style=AsciiStyle()).by_attr())
print("Graph was generated.\nOutput file: " + argv[1] + ".ast.png")
DotExporter(
root,
graph="graph",
nodenamefunc=MyNode.nodenamefunc,
nodeattrfunc=lambda node: "label=%s" % (node.type),
edgeattrfunc=MyNode.edgeattrfunc,
edgetypefunc=MyNode.edgetypefunc,
).to_picture(argv[1] + ".ast2.png")
DotExporter(root, nodenamefunc=lambda node: node.label).to_picture(
argv[1] + ".ast3.png"
)
except NameError:
print("Não foi possível gerar a árvore sintática.")
print("\n\n")
def main():
groupObj = PairingGroup('SS512')
cpabe = IDABE.IDABE(groupObj)
gpfile = "global.param"
cpabe.setupGP(gpfile)
ta_conf = cpabe.read_attr_dict("TAs.config")
print("TA configurations: ", ta_conf)
TAset = ta_conf['TAs']
ta_msk_filenames = ta_conf['TAmsk']
ta_pk_filenames = ta_conf['TApubs']
# org tree structure
root = Node("org1")
org2 = Node("org2", parent=root)
org3 = Node("org3", parent=root)
org4 = Node("org4", parent=root)
org5 = Node("org5", parent=org2)
org6 = Node("org6", parent=org2)
print("Organization Tree Structure\n")
print(Fore.BLUE + RenderTree(root, style=AsciiStyle()).by_attr())
print(Style.RESET_ALL)
# each TA first generate their own public key and msk key
for ta in TAset:
cpabe.ta_setup_tree(ta_pk_filenames[ta], ta_msk_filenames[ta], root)
# this simulates how multiple TAs generate the fe
for i in range(1, len(TAset)):
ta_first = "ta" + str(i)
ta_second = "ta" + str(i + 1)
cpabe.federated_setup1(ta_pk_filenames[ta_first],
ta_pk_filenames[ta_second],
ta_msk_filenames[ta_second], root)
command = "cp {} {}".format(ta_pk_filenames[TAset[-1]], "pk.param")
print("command is ", command)
os.system(command)
def print_tree(self):
"""Prints table as it is stored in tree. Relevant for rowspan/colspan only"""
if self.table_tree:
for pre, _, node in RenderTree(self.table_tree, style=AsciiStyle()):
print(pre, node.name, node.position, node.obj)
while True:
if current_node.is_root and len(current_node.children) > 0:
current_node = current_node.children[0]
else:
if current_node.is_leaf:
return current_node
elif len(current_node.children) > 0:
current_node = current_node.children[0]
if __name__ == '__main__':
l = [0, 1, 2, 99.0, 118.0, 200.315, 75, 64, 22]
print(find_max_cpu_util(l))
# Example of a Binary Search Tree
root = Node(99.0)
root_rc = Node(99.5, parent=root)
root_lc = Node(1, parent=root)
rrc_rc = Node(100, parent=root_rc)
rrc_rc_rc = Node(101, parent=rrc_rc)
print(RenderTree(root, style=AsciiStyle()).by_attr())
print(find_max_cpu_util_tree(root))
def __repr__(self):
return str(RenderTree(self.root, style=AsciiStyle()))
orbiterNode = find_by_attr(ERRANDS, orbiter)
if orbiterNode is not None:
orbiterNode.parent = centerNode
else:
orbiterNode = Node(orbiter, parent=centerNode)
return COM
def verifymap(orbitmap):
"""Verifies an orbitmap, returns the checksum
>>> verifymap(readmap("COM)B\\nB)C\\nC)D\\nD)E\\nE)F\\nB)G\\nG)H\\nD)I\\nE)J\\nJ)K\\nK)L"))
42
"""
count = 0
orbiters = findall(orbitmap, filter_=lambda node: node.name != "COM")
for orbiter in orbiters:
count += orbiter.depth
return count
if __name__ == "__main__":
with open("data") as data:
orbitmap = data.readlines()
orbitmap = readmap(orbitmap)
print(RenderTree(orbitmap, style=AsciiStyle()).by_attr())
checksum = verifymap(orbitmap)
print("Checksum is: %d" % checksum)
def render_beautify_tree(tree, ofd):
tree = beautify_tree(tree)
for pre, _, node in RenderTree(tree, style=AsciiStyle()):
print_writeofd("%s%s" % (pre, node.name), ofd)
def ascii_art(self):
print(RenderTree(self.root, style=AsciiStyle()))
def renderTreeToFile(filename, tree):
f = open(filename + "_out.txt", "w")
for pre, _, node in RenderTree(tree, style=AsciiStyle()):
f.write("%s%s\r" % (pre, node.name))
def render_tree(self):
"""Print tree structure."""
print(RenderTree(self.root, style=AsciiStyle()).by_attr())
return self
def prune_taxtree():
for node in PreOrderIter(taxtree,
filter_=lambda n: rankmap.get(n.name) == 'genus'
and len(n.children) > 0):
node.children = []
# for node in PreOrderIter(taxtree,
# filter_=lambda n: len(n.children) == 0
# and rankmap.get(n.name) != 'genus'):
fill_rankmap()
prune_taxtree()
t = RenderTree(taxtree, style=AsciiStyle()).by_attr()
hdl = open('taxtree.txt', 'w')
hdl.write(t + '\n')
print('Writing taxid db')
count = -1
m = {}
tfile = open('trainset_db_taxid.txt', 'w')
rankmap['Root'] = 'rootrank'
for node in PreOrderIter(taxtree):
count = count + 1
m[node.name] = count
if count == 0:
parentno = -1
else:
parentno = m.get(node.parent.name)
# reference: https://stackoverflow.com/questions/2358045/how-can-i-implement-a-tree-in-python
# http://pydoc.net/anytree/2.4.3/anytree.node.nodemixin/
# reference: https://anytree.readthedocs.io/en/latest/
from anytree import Node, RenderTree, Walker
from anytree import Node, RenderTree, AsciiStyle
layer1 = Node(44)
layer2_1 = Node(6, parent=layer1)
layer2_2 = Node(9, parent=layer1)
layer3_1 = Node(34, parent=layer2_2)
layer3_2 = Node(5, parent=layer2_1)
layer3_3 = Node(4, parent=layer2_1)
print('\nShowing the entire tree:')
for pre, fill, node in RenderTree(layer1):
print("%s%s" % (pre, node.name))
print('\n')
w = Walker()
print('\nWalking the tree, layers3_2, and layers3_3:')
print(w.walk(layer3_2, layer3_3))
print('\n')
print('Showing the tree AsciiStyle:')
print(RenderTree(layer1, style=AsciiStyle()))
print('\n')
# reference: https://anytree.readthedocs.io/en/latest/
beliefsTree.append(AxiomNode('belief'+str(nCandidate), beliefLeaf, parent = beliefsTree[nParents], axiom = candLeaf))
# retreiving the branch containing the explanation
explanation = [i.name for i in list(beliefsTree[-1].path)] # for the path fram leaf to root
break
else:
nCandidate += 1
candNode = []
beliefNode = []
for candidate in candidatePair:
candNode.append(candidate[1])
if candidate[0]:
beliefNode.append(candidate[0][0])
beliefsTree.append(AxiomNode('belief'+str(nCandidate), beliefNode, parent = beliefsTree[nParents], axiom = candNode))
extendedBeliefs.append(beliefNode)
if stop:
break
beliefs = extendedBeliefs
if not beliefs:
stop = 1
nParents += 1
print (RenderTree(beliefsTree[0], style=AsciiStyle()).by_attr())
for beliefs in beliefsTree:
print beliefs.name+' : '
print beliefs.belief
print beliefs.axiom
def print_tree(structures_tree, root_node_idx=0):
from anytree import RenderTree, AsciiStyle
root_node = structures_tree[root_node_idx]
print(RenderTree(root_node, style=AsciiStyle()))
else:
error()
check_point(FACTOR[1], followset=FACTOR[0], patron_follow=ID_NUM)
return temp
# PROGRAMA PRINCIPAL
actualizar_token()
raiz = programa()
if not os.path.exists(directorio_sintactico):
os.makedirs(directorio_sintactico)
with open(directorio_sintactico + os.path.sep + ARBOL_TXT,
"w") as archivo_arbol:
archivo_arbol.write(str(RenderTree(raiz, style=AsciiStyle())))
if os.name == 'posix':
RenderTreeGraph(raiz, nodeattrfunc=lambda node: "shape = box").to_picture(
directorio_sintactico + os.path.sep + ARBOL_PNG)
elif os.name == 'nt':
RenderTreeGraph(raiz, nodeattrfunc=lambda node: "shape = box").to_dotfile(
directorio_sintactico + os.path.sep + ARBOL_DOT)
comando = "dot " + directorio_sintactico + os.path.sep + ARBOL_DOT + " -T png -o " + directorio_sintactico + os.path.sep + ARBOL_PNG
startupinfo = subprocess.STARTUPINFO()
startupinfo.dwFlags |= subprocess.STARTF_USESHOWWINDOW
subprocess.call(comando, startupinfo=startupinfo)
with open(directorio_sintactico + os.path.sep + "errores_sintacticos.txt",
"w") as archivo_errores_sintacticos:
for error in errores:
def draw_tree(self, tree):
for prefix, _, node in RenderTree(tree, style=AsciiStyle()):
print("%s%s" % (prefix.replace('+', '`'), node.name))
