def _format_optdict(optdict, script=False, ignore=None):
opts = []
for opt, value in optdict.iteritems():
if not ignore or opt not in ignore:
opts.append('-%s' % opt)
if value is not None:
opts.append(_format_optvalue(value, script))
return _flatten(opts)
def _list_from_statespec(stuple):
nval = []
for val in stuple:
typename = getattr(val, 'typename', None)
if typename is None:
nval.append(val)
val = str(val)
if typename == 'StateSpec':
val = val.split()
nval.append(val)
it = iter(nval)
return [ _flatten(spec) for spec in zip(it, it) ]
def dragged(event):
global point_draw
point_draw = False
if selected_corner == None:
return
global triangle
triangle[selected_corner] = [event.x, event.y]
canvas.coords(triangle_item, _flatten(triangle))
for p in points:
color = 'red'
oval_coords = canvas.coords(p)
point = array([oval_coords[0]+point_radius, oval_coords[1]+point_radius])
if is_inside(point, array(triangle)):
color = 'green'
canvas.itemconfig(p, fill=color)
def update_clock(self):
# render the particles
points = [0] * 6
for p in self.particles:
points[0] = p.location[0]
points[1] = p.location[1]
r = p.velocity[1] + (math.pi * 5.0) / 12.0
points[2] = points[0] - (int) (math.cos(r) * PARTICLE_SIZE)
points[3] = points[1] - (int) (math.sin(r) * PARTICLE_SIZE)
r2 = p.velocity[1] + (math.pi * 7.0) / 12.0
points[4] = points[0] - (int) (math.cos(r2) * PARTICLE_SIZE)
points[5] = points[1] - (int) (math.sin(r2) * PARTICLE_SIZE)
self.c.coords(p.poly,_flatten(points))
# move the particle
dx = math.cos(r)
dy = math.sin(r)
p.location[0] = p.location[0] + (dx * p.velocity[0])
p.location[1] = p.location[1] + (dy * p.velocity[0])
# handle wraps
if p.location[0] < 0:
p.location[0] = CANVAS_WIDTH
if p.location[1] < 0:
p.location[1] = CANVAS_HEIGHT
if p.location[0] > CANVAS_WIDTH:
p.location[0] = 0
if p.location[1] > CANVAS_HEIGHT:
p.location[1] = 0
self.flock()
# Next frame.
self.root.after(100, self.update_clock)
def update_clock(self):
# render the particles
points = [0] * 6
for p in self.particles:
points[0] = p.location[0]
points[1] = p.location[1]
r = p.velocity[1] + (math.pi * 5.0) / 12.0
points[2] = points[0] - (int)(math.cos(r) * PARTICLE_SIZE)
points[3] = points[1] - (int)(math.sin(r) * PARTICLE_SIZE)
r2 = p.velocity[1] + (math.pi * 7.0) / 12.0
points[4] = points[0] - (int)(math.cos(r2) * PARTICLE_SIZE)
points[5] = points[1] - (int)(math.sin(r2) * PARTICLE_SIZE)
self.c.coords(p.poly, _flatten(points))
# move the particle
dx = math.cos(r)
dy = math.sin(r)
p.location[0] = p.location[0] + (dx * p.velocity[0])
p.location[1] = p.location[1] + (dy * p.velocity[0])
# handle wraps
if p.location[0] < 0:
p.location[0] = CANVAS_WIDTH
if p.location[1] < 0:
p.location[1] = CANVAS_HEIGHT
if p.location[0] > CANVAS_WIDTH:
p.location[0] = 0
if p.location[1] > CANVAS_HEIGHT:
p.location[1] = 0
self.flock()
# Next frame.
self.root.after(100, self.update_clock)
def main():
login()
titles = check_msg()
#已完成列表
done = DB.done()
all = DB.all()
for title in titles:
print title
if title not in done:
craw = fetch_single_page(title)
if cf.get('sheet', 'done_sign') in _flatten(craw):
isdone = '1'
else:
isdone = '0'
#项目在数据库中则更新，不存在则添加
if title in all:
DB.update(title, unicode(craw), isdone)
else:
DB.insert(title, unicode(craw), isdone)
#特喵的操控IE就和伺候大爷一样啊
browser.quit()
def main():
login()
titles = check_msg()
#已完成列表
done = DB.done()
all = DB.all()
for title in titles:
print title
if title not in done:
craw = fetch_single_page(title)
if cf.get('sheet','done_sign') in _flatten(craw):
isdone = '1'
else:
isdone = '0'
#项目在数据库中则更新，不存在则添加
if title in all:
DB.update(title,unicode(craw),isdone)
else:
DB.insert(title,unicode(craw),isdone)
#特喵的操控IE就和伺候大爷一样啊
browser.quit()
def _do(self, cmd, *args):
return self.canvas._do(cmd, (self.tag,) + _flatten(args))
def _do(self, cmd, *args):
return self.canvas._do(cmd, (self.tag, ) + _flatten(args))
def compute_common_degree_in_network(network_type, is_directed, node_tuple_list, connection_tuple_list):
node_tuple_list = filter(lambda (network_type_,\
is_directed_,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): network_type_ == network_type and is_directed_ == is_directed,\
node_tuple_list\
)
edge_tuple_list = filter(lambda (network_type_,\
is_directed_,\
node1,\
node2): network_type_ == network_type and is_directed_ == is_directed,\
connection_tuple_list\
)
edge_tuple_list_length = len(edge_tuple_list)
success_compute = 0
failure_compute = 0
common_degree_str_list_in_network = []
common_degree_num_list_in_network = []
common_edge_tuple_list_in_network = []
common_degree_rate_list_in_network = []
for edge_idx in xrange(len(edge_tuple_list)):
edge_tuple = edge_tuple_list[edge_idx]
node1 = edge_tuple[2]
node2 = edge_tuple[3]
if (edge_idx % 1000 == 0 and edge_idx > 998) or (edge_idx == edge_tuple_list_length-1):
logging.info("============== Computer common node of {edge_idx}th edge in {network_type}.{is_directed} network ==============".format(edge_idx = edge_idx, network_type = network_type, is_directed = is_directed))
logging.info("edge_index:{idx}, finish rate:{rate}".format(idx = edge_idx, rate = float(edge_idx+1)/edge_tuple_list_length))
logging.info("success_rate:{success_rate}".format(success_rate = success_compute / float(success_compute + failure_compute + 0.0001)))
logging.info("success_update:{success}, failure_update:{failure}".format(success = success_compute, failure = failure_compute))
try:
node1_and_degree_str_list = filter(lambda (network_type,\
is_directed,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): node == node1,\
node_tuple_list)[0]
except Exception as e:
failure_compute = failure_compute + 1
logging.error(e)
continue
if node1_and_degree_str_list[3] == "":
node1_degree_list = []
else:
node1_degree_list = node1_and_degree_str_list[3].split("///")
try:
node2_and_degree_str_list = filter(lambda (network_type,\
is_directed,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): node == node2,\
node_tuple_list)[0]
except Exception as e:
failure_compute = failure_compute + 1
logging.error(e)
continue
if node2_and_degree_str_list[3] == "":
node2_degree_list = []
else:
node2_degree_list = node2_and_degree_str_list[3].split("///")
# Merge current result
node1_degree_list = _flatten([node1_degree_list])
node2_degree_list = _flatten([node2_degree_list])
if len(node2_degree_list) <= len(node1_degree_list):
common_degree_list = filter(lambda node: node in node1_degree_list, node2_degree_list)
else:
common_degree_list = filter(lambda node: node in node2_degree_list, node1_degree_list)
common_degree_str_list_in_network.append("///".join(map(str, common_degree_list)))
common_degree_num_list_in_network.append(len(common_degree_list))
common_edge_tuple_list_in_network.append((node1, node2))
common_degree_rate_list_in_network.append(len(common_degree_list)/float(len(node1_degree_list)+len(node2_degree_list)))
success_compute = success_compute + 1
# Merge all results
degree_data_tuple_list_in_network = map(lambda edge_tuple, degree_str, degree_num, degree_rate:\
(edge_tuple, degree_str, degree_num, degree_rate),\
common_edge_tuple_list_in_network,\
common_degree_str_list_in_network,\
common_degree_num_list_in_network,\
common_degree_rate_list_in_network\
)
logging.info("len(degree_data_tuple_list_in_network):{0}".format(len(degree_data_tuple_list_in_network)))
logging.info("degree_data_tuple_list_in_network[:3]:{0}".format(degree_data_tuple_list_in_network[:3]))
return degree_data_tuple_list_in_network
def Generator_sheet(raw_data):
cf = ConfigParser.ConfigParser()
cf.readfp(codecs.open('conf.ini','r','utf-8'))
#竖条宽度
width = 0.8
#加载中文字体让正常显示
font = FontProperties(fname="simsun.ttc", size=14)
colors ='brcmyw'
#流程完成标志
done_sign = cf.get('sheet','done_sign')
project = [i[0] for i in raw_data]
#将每个project字符插入换行符
n=5
project = ['\n'.join(re.findall(r'.{%d}|.{1,%d}$'%(n,max(1,len(i)%n)),i)) for i in project]
name_and_times = [i[1] for i in raw_data]
names = [[y[0] for y in x] for x in name_and_times]
#压平names
name = _flatten(names)
times = [[y[1][2:].replace('-','.') for y in x] for x in name_and_times]
times = _flatten(times)
number = [[1]*len(i[1]) for i in raw_data]
#为设置超时提醒做准备
time_out = [len(i[1]) for i in raw_data]
time_out_detection = []
Initial = 0
for i in time_out:
Initial+=i
time_out_detection.append(Initial)
#是否符合添加需求(True表示需要添加提醒)
vaild = [done_sign not in _flatten(i) for i in names]
#需要提醒的位置
need_alert = [vaild[x]*y for x,y in enumerate(time_out_detection)]
#计算2个时间之间的差值,例如符合14.04.10离今天的时间
def distance(timev):
timev = '20'+timev
ymd = [int(i) for i in timev.split('.')]
d_now = datetime.datetime.now()
d_2 = datetime.datetime(ymd[0],ymd[1],ymd[2])
return (d_now-d_2).days
def singlebar(left,height):
global patch_handles
bottom = 0
#初始化出现标记位置
sign = 10000
for i,j in enumerate(height):
if raw_data[-1][-1][i][0] == done_sign:
patch_handles.append(plt.bar(left,j,width=width,align='center',color='g',bottom=bottom))
#记住该位置
sign = i
elif i>sign:
patch_handles.append(plt.bar(left,j,width=width,align='center',color='g',bottom=bottom))
else:
patch_handles.append(plt.bar(left,j,width=width,align='center',color=colors[i%len(colors)],bottom=bottom))
bottom+=j
#画图
for x in xrange(len(number)):
singlebar(x,number[x])
#添加文字
for j in xrange(len(patch_handles)):
for i,patch in enumerate(patch_handles[j].get_children()):
bl = patch.get_xy()
x = 0.5*patch.get_width() + bl[0]
y = 0.5*patch.get_height() + bl[1]
if j+1 in need_alert and j>1:
plt.text(x,y+0.1, "%s" % (name[j]), ha='center',fontproperties=font )
plt.text(x,y-0.2, "%s" % (times[j]), ha='center',fontproperties=font )
#添加提醒文字
plt.text(x,y+0.6, u'已过%d天'%(distance(times[j])), ha='center',fontproperties=font,color ='r' )
else:
plt.text(x,y+0.1, "%s" % (name[j]), ha='center',fontproperties=font )
plt.text(x,y-0.2, "%s" % (times[j]), ha='center',fontproperties=font )
plt.xticks(range(len(number)),project,fontproperties=font)
plt.title(cf.get('sheet','title'),fontproperties=font,size=30)
plt.axis([-1,14,0,9])
fig = plt.gcf()
fig.set_size_inches(18.5,10.5)
fig.subplots_adjust(left=0.02,bottom=0.17,right=0.99,top=0.93)
fig.savefig('{}.png'.format(str(datetime.date.today())),dpi=600)
def compute_common_degree_in_network(network_type, is_directed,
node_tuple_list,
connection_tuple_list):
node_tuple_list = filter(lambda (network_type_,\
is_directed_,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): network_type_ == network_type and is_directed_ == is_directed,\
node_tuple_list\
)
edge_tuple_list = filter(lambda (network_type_,\
is_directed_,\
node1,\
node2): network_type_ == network_type and is_directed_ == is_directed,\
connection_tuple_list\
)
edge_tuple_list_length = len(edge_tuple_list)
success_compute = 0
failure_compute = 0
common_degree_str_list_in_network = []
common_degree_num_list_in_network = []
common_edge_tuple_list_in_network = []
common_degree_rate_list_in_network = []
for edge_idx in xrange(len(edge_tuple_list)):
edge_tuple = edge_tuple_list[edge_idx]
node1 = edge_tuple[2]
node2 = edge_tuple[3]
if (edge_idx % 1000 == 0
and edge_idx > 998) or (edge_idx
== edge_tuple_list_length - 1):
logging.info(
"============== Computer common node of {edge_idx}th edge in {network_type}.{is_directed} network =============="
.format(edge_idx=edge_idx,
network_type=network_type,
is_directed=is_directed))
logging.info("edge_index:{idx}, finish rate:{rate}".format(
idx=edge_idx,
rate=float(edge_idx + 1) / edge_tuple_list_length))
logging.info("success_rate:{success_rate}".format(
success_rate=success_compute /
float(success_compute + failure_compute + 0.0001)))
logging.info(
"success_update:{success}, failure_update:{failure}".
format(success=success_compute,
failure=failure_compute))
try:
node1_and_degree_str_list = filter(lambda (network_type,\
is_directed,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): node == node1,\
node_tuple_list)[0]
except Exception as e:
failure_compute = failure_compute + 1
logging.error(e)
continue
if node1_and_degree_str_list[3] == "":
node1_degree_list = []
else:
node1_degree_list = node1_and_degree_str_list[3].split(
"///")
try:
node2_and_degree_str_list = filter(lambda (network_type,\
is_directed,\
node,\
degree_str,\
in_degree_str,\
out_degree_str): node == node2,\
node_tuple_list)[0]
except Exception as e:
failure_compute = failure_compute + 1
logging.error(e)
continue
if node2_and_degree_str_list[3] == "":
node2_degree_list = []
else:
node2_degree_list = node2_and_degree_str_list[3].split(
"///")
# Merge current result
node1_degree_list = _flatten([node1_degree_list])
node2_degree_list = _flatten([node2_degree_list])
if len(node2_degree_list) <= len(node1_degree_list):
common_degree_list = filter(
lambda node: node in node1_degree_list,
node2_degree_list)
else:
common_degree_list = filter(
lambda node: node in node2_degree_list,
node1_degree_list)
common_degree_str_list_in_network.append("///".join(
map(str, common_degree_list)))
common_degree_num_list_in_network.append(
len(common_degree_list))
common_edge_tuple_list_in_network.append((node1, node2))
common_degree_rate_list_in_network.append(
len(common_degree_list) /
float(len(node1_degree_list) + len(node2_degree_list)))
success_compute = success_compute + 1
# Merge all results
degree_data_tuple_list_in_network = map(lambda edge_tuple, degree_str, degree_num, degree_rate:\
(edge_tuple, degree_str, degree_num, degree_rate),\
common_edge_tuple_list_in_network,\
common_degree_str_list_in_network,\
common_degree_num_list_in_network,\
common_degree_rate_list_in_network\
)
logging.info("len(degree_data_tuple_list_in_network):{0}".format(
len(degree_data_tuple_list_in_network)))
logging.info("degree_data_tuple_list_in_network[:3]:{0}".format(
degree_data_tuple_list_in_network[:3]))
return degree_data_tuple_list_in_network
# This module exports classes for the various canvas item types
def Generator_sheet(raw_data):
cf = ConfigParser.ConfigParser()
cf.readfp(codecs.open('conf.ini', 'r', 'utf-8'))
#竖条宽度
width = 0.8
#加载中文字体让正常显示
font = FontProperties(fname="simsun.ttc", size=14)
colors = 'brcmyw'
#流程完成标志
done_sign = cf.get('sheet', 'done_sign')
project = [i[0] for i in raw_data]
#将每个project字符插入换行符
n = 5
project = [
'\n'.join(re.findall(r'.{%d}|.{1,%d}$' % (n, max(1,
len(i) % n)), i))
for i in project
]
name_and_times = [i[1] for i in raw_data]
names = [[y[0] for y in x] for x in name_and_times]
#压平names
name = _flatten(names)
times = [[y[1][2:].replace('-', '.') for y in x] for x in name_and_times]
times = _flatten(times)
number = [[1] * len(i[1]) for i in raw_data]
#为设置超时提醒做准备
time_out = [len(i[1]) for i in raw_data]
time_out_detection = []
Initial = 0
for i in time_out:
Initial += i
time_out_detection.append(Initial)
#是否符合添加需求(True表示需要添加提醒)
vaild = [done_sign not in _flatten(i) for i in names]
#需要提醒的位置
need_alert = [vaild[x] * y for x, y in enumerate(time_out_detection)]
#计算2个时间之间的差值,例如符合14.04.10离今天的时间
def distance(timev):
timev = '20' + timev
ymd = [int(i) for i in timev.split('.')]
d_now = datetime.datetime.now()
d_2 = datetime.datetime(ymd[0], ymd[1], ymd[2])
return (d_now - d_2).days
def singlebar(left, height):
global patch_handles
bottom = 0
#初始化出现标记位置
sign = 10000
for i, j in enumerate(height):
if raw_data[-1][-1][i][0] == done_sign:
patch_handles.append(
plt.bar(left,
j,
width=width,
align='center',
color='g',
bottom=bottom))
#记住该位置
sign = i
elif i > sign:
patch_handles.append(
plt.bar(left,
j,
width=width,
align='center',
color='g',
bottom=bottom))
else:
patch_handles.append(
plt.bar(left,
j,
width=width,
align='center',
color=colors[i % len(colors)],
bottom=bottom))
bottom += j
#画图
for x in xrange(len(number)):
singlebar(x, number[x])
#添加文字
for j in xrange(len(patch_handles)):
for i, patch in enumerate(patch_handles[j].get_children()):
bl = patch.get_xy()
x = 0.5 * patch.get_width() + bl[0]
y = 0.5 * patch.get_height() + bl[1]
if j + 1 in need_alert and j > 1:
plt.text(x,
y + 0.1,
"%s" % (name[j]),
ha='center',
fontproperties=font)
plt.text(x,
y - 0.2,
"%s" % (times[j]),
ha='center',
fontproperties=font)
#添加提醒文字
plt.text(x,
y + 0.6,
u'已过%d天' % (distance(times[j])),
ha='center',
fontproperties=font,
color='r')
else:
plt.text(x,
y + 0.1,
"%s" % (name[j]),
ha='center',
fontproperties=font)
plt.text(x,
y - 0.2,
"%s" % (times[j]),
ha='center',
fontproperties=font)
plt.xticks(range(len(number)), project, fontproperties=font)
plt.title(cf.get('sheet', 'title'), fontproperties=font, size=30)
plt.axis([-1, 14, 0, 9])
fig = plt.gcf()
fig.set_size_inches(18.5, 10.5)
fig.subplots_adjust(left=0.02, bottom=0.17, right=0.99, top=0.93)
fig.savefig('{}.png'.format(str(datetime.date.today())), dpi=600)
def _format_mapdict(mapdict, script=False):
opts = []
for opt, value in mapdict.iteritems():
opts.extend(('-%s' % opt, _format_optvalue(_mapdict_values(value), script)))
return _flatten(opts)