def parseDMSStringSingle(str):
'''Parse a single coordinate either DMS or decimal degrees.
It simply returns the value but doesn't maintain any knowledge
as to whether it is latitude or longitude'''
str = str.strip().upper()
try:
if re.search("[NSEW]", str) == None:
coord = float(str)
else:
# We should have a DMS coordinate
if re.search('[NSEW]\s*\d+', str) == None:
# We assume that the cardinal directions occur after the digits
m = re.findall('(.+)\s*([NSEW])', str)
if len(m) != 1 or len(m[0]) != 2:
raise ValueError('Invalid DMS Coordinate')
coord = LatLon.parseDMS(m[0][0], m[0][1])
else:
# The cardinal directions occur at the beginning of the digits
m = re.findall('([NSEW])\s*(.+)', str)
if len(m) != 1 or len(m[0]) != 2:
raise ValueError('Invalid DMS Coordinate')
coord = LatLon.parseDMS(m[0][1], m[0][0])
except:
raise ValueError('Invalid Coordinates')
return coord
def sort(self):
if not self.modell_kg is None and not self.Gemeinde is None:
self.modell_kg.clear()
for item in self.gemeindeliste[str.strip(self.Gemeinde)]:
eins = QtGui.QStandardItem(item)
eins.setEditable(False)
self.modell_kg.appendRow(eins)
self.modell_kg.sort(0)
def dinforead(prefix):
# mesh data:
dfile = prefix + '_dinfo.dat'
fd = open(dfile, 'r')
s = str.split(str.strip(fd.readline()))
nr = int(s[0])
nh = int(s[1])
nphi = int(s[2])
s = str.split(str.strip(fd.readline()))
a = double(s[0])
s = str.split(str.strip(fd.readline()))
if (s):
t = double(s[0])
else:
t = 0.
print("Kerr a = " + str(a))
fd.close()
return nr, nh, nphi, a, t
def get_metadata(ids, output_file=None):
"""
Retrieves metadata for a folder of folders, where each subfolder is named
for a HathiTrust ID. This structure is the default structure extracted from
a Data API request (:method htrc.volumes.get_volumes:).
"""
ids = [str.strip(id).replace('+', ':').replace('=', '/')
for id in ids] # data cleanup
metadata = dict()
for segment in split_items(ids, 50):
items = safe_bulk_metadata(segment)
metadata.update(items)
if output_file:
with open(output_file, 'w') as outfile:
json.dump(metadata, outfile)
return metadata
def gstsuche(self):
# Der Username der verwendet werden soll
if len(auth_user_global) > 0: # Ist belegt
auth_user = auth_user_global[0]
else:
auth_user = None
#Textfeldinhalt zurücksetzen
self.gefunden.setText("")
self.gefunden.repaint()
schema = 'vorarlberg'
################################################
# Geometriespalte bestimmen -- geht nur mit OGR
uri = QgsDataSourceUri()
uri.setConnection(self.db.hostName(),str(self.db.port()),self.db.databaseName(),'','') # Kein Kennwort nötig, Single Sign On
try:
if auth_user == None:
outputdb = ogr.Open('pg: host =' + self.db.hostName() + ' dbname =' + self.db.databaseName() + ' schemas=' + schema + ' port=' + str(self.db.port()))
else:
outputdb = ogr.Open('pg: host =' + self.db.hostName() + ' dbname =' + self.db.databaseName() + ' schemas=' + schema + ' port=' + str(self.db.port()) + ' user='******'gst').GetGeometryColumn()
except:
geom_column = 'the_geom'
##################################################
uri.setDataSource(schema, 'gst', geom_column)
if not auth_user == None:
uri.setUsername(auth_user)
gst_lyr = QgsVectorLayer(uri.uri(), "gst","postgres")
#------------------------------------------------------
# Subset Suche: Gibts so ein Grundstück überhaupt?
# erst wenn ja, dann wird geladen
#------------------------------------------------------
fid = []
# Eingabefeld auslesen und gleich splitten
gstliste = str.split(self.txtGstnr.text(),",")
abfr_str = ''
nummer = ''
for gst in gstliste:
if abfr_str == '':
abfr_str = abfr_str + 'gnr = \'' + str.strip(gst) + '\' '
nummer = nummer + gst + " "
else:
abfr_str = abfr_str + 'or gnr = \'' + str.strip(gst) + '\' '
nummer = nummer + gst + " "
gst_lyr.setSubsetString('(' + abfr_str +') and kg = (\'' + self.kgnummer + '\')')
gst_lyr.selectAll()
fid = gst_lyr.selectedFeatureIds()
#------------------------------------------------------
# Ende Subset Suche
#------------------------------------------------------
#Wurde was gefunden? ja/nein
if gst_lyr.selectedFeatureCount() >= 1: #Eins gefunden, Textfeld und Zoompunkt festlegen
self.gefunden.setText(("Grundstück ") + nummer + " in KG " + self.Kgemeinde + " gefunden")
self.zoompunkt = gst_lyr.boundingBoxOfSelected()
# Erstmal die Gemeinde laden
self.ladeGemeinde()
# Ein Problem haben wir, da die FIDs der Layer nicht übereinstimmenm,
# da diese aus einem VIEW stammen und im Modul Projektimport zugewiesen werden
# um zu selektieren den geladenen Layer suchen
#for lyr_tmp in self.iface.legendInterface().layers():
for lyr_tmp_d in QgsProject.instance().mapLayers(): # vergisst und auch bei einem refresh nicht richtig macht....
#if lyr_tmp.name() == ("Grundstücke-") + self.Gemeinde + ' (a)':
lyr_tmp = QgsProject.instance().mapLayers()[lyr_tmp_d]
if lyr_tmp.name() == ("Grundstücke-") + self.Gemeinde + ' (a)':
#lyr_tmp = QgsProject.instance().mapLayers()[lyr_tmp_d]
#if lyr_tmp.name() == ("Grundstücke-") + 'Vorarlberg (a)':
# und nochmal die Subset auswahl durchführen
# FIDS abfragen, Subset zurücksetzen und FIDS selektieren
if not fid is None:
lyr_tmp.setSubsetString('(' + abfr_str +') and kg = (\'' + self.kgnummer + '\')')
lyr_tmp.selectAll()
fid = lyr_tmp.selectedFeatureIds()
lyr_tmp.setSubsetString('')
lyr_tmp.selectByIds(fid) # und selektieren
else: #nichts gefunden: Textfeld und Zoompunkt zurücksetzen
self.gefunden.setText(("Grundstück ") + self.txtGstnr.text() + " in KG " + self.Kgemeinde + " nicht gefunden")
self.zoompunkt = None
def process_incoming(incoming, id_string):
# assign variables
if len(incoming) >= 2:
identity = incoming[0].strip().lower()
text = incoming[1].strip().lower()
# if the tuple contains an id_string, use it, otherwise default
if id_string is None and len(incoming) >= 3:
id_string = incoming[2]
else:
responses.append({'code': SMS_API_ERROR,
'text': _(u"Missing 'identity' "
u"or 'text' field.")})
return
if not len(identity.strip()) or not len(text.strip()):
responses.append({'code': SMS_API_ERROR,
'text': _(u"'identity' and 'text' fields can "
u"not be empty.")})
return
# if no id_string has been supplied
# we expect the SMS to be prefixed with the form's sms_id_string
if id_string is None:
keyword, text = [s.strip() for s in text.split(None, 1)]
xform = XForm.objects.get(user__username=username,
sms_id_string=keyword)
else:
xform = XForm.objects.get(user__username=username,
id_string=id_string)
if not xform.allows_sms:
responses.append({'code': SMS_SUBMISSION_REFUSED,
'text': _(u"The form '%(id_string)s' does not "
u"accept SMS submissions.")
% {'id_string': xform.id_string}})
return
# parse text into a dict object of groups with values
json_submission, medias_submission, notes = parse_sms_text(xform,
identity,
text)
# retrieve sms_response if exist in the form.
json_survey = json.loads(xform.json)
if json_survey.get('sms_response'):
resp_str.update({'success': json_survey.get('sms_response')})
# check that the form contains at least one filled group
meta_groups = sum([1 for k in list(json_submission)
if k.startswith('meta')])
if len(list(json_submission)) <= meta_groups:
responses.append({'code': SMS_PARSING_ERROR,
'text': _(u"There must be at least one group of "
u"questions filled.")})
return
# check that required fields have been filled
required_fields = [f.get('name')
for g in json_survey.get('children', {})
for f in g.get('children', {})
if f.get('bind', {}).get('required', 'no') == 'yes']
submitted_fields = {}
for group in json_submission.values():
submitted_fields.update(group)
for field in required_fields:
if not submitted_fields.get(field):
responses.append({'code': SMS_SUBMISSION_REFUSED,
'text': _(u"Required field `%(field)s` is "
u"missing.") % {'field': field}})
return
# convert dict object into an XForm string
xml_submission = dict2xform(jsform=json_submission,
form_id=xform.id_string)
# compute notes
data = {}
for g in json_submission.values():
data.update(g)
for idx, note in enumerate(notes):
try:
notes[idx] = note.replace('${', '{').format(**data)
except Exception as e:
logging.exception(_(u'Updating note threw exception: %s'
% text(e)))
# process_incoming expectes submission to be a file-like object
xforms.append(BytesIO(xml_submission.encode('utf-8')))
medias.append(medias_submission)
json_submissions.append(json_submission)
xforms_notes.append(notes)
def corvee(n1,n2):
re.rg("gdump")
nx=re.nx ; ny=re.ny ; nz=re.nz
gdet=re.gdet ; gcov=re.gcov ; _dx2=re._dx2 ; _dx3=re._dx3 ; drdx=re.drdx
r=re.r ; h=re.h ; phi=re.ph # importing coordinate mesh
# velocities:
uufile='merge_uu.dat'
udfile='merge_ud.dat'
fuu=open(uufile, 'r')
fud=open(udfile, 'r')
# s=str.split(str.strip(fuu.readline()))
# mean velocity field
uumean=zeros([4,nx,ny,nz], dtype=double)
udmean=zeros([4,nx,ny,nz], dtype=double)
for kx in arange(nx):
for ky in arange(ny):
s=str.split(str.strip(fuu.readline()))
uumean[0,kx,ky,:]=double(s[0])
uumean[1,kx,ky,:]=double(s[1])
uumean[2,kx,ky,:]=double(s[2])
uumean[3,kx,ky,:]=double(s[3])
s=str.split(str.strip(fud.readline()))
udmean[0,kx,ky,:]=double(s[0])
udmean[1,kx,ky,:]=double(s[1])
udmean[2,kx,ky,:]=double(s[2])
udmean[3,kx,ky,:]=double(s[3])
fuu.close()
fud.close()
# tetrad components:
t0=tetrad_t(uumean, udmean)
tr=tetrad_r(uumean, udmean)
th=tetrad_h(uumean, udmean)
tp=tetrad_p(uumean, udmean)
# print shape(tr)
nframes=n2-n1+1
n=n1+arange(nframes)
for k in n:
fname=re.dumpname(k)
re.rd(fname)
uu=re.uu ; ud=re.ud ; rho=re.rho
if(k==n1):
rhomean=rho
# velocity components:
uu0=uu[0]*drdx[0,0]-uumean[0] ; ud0=old_div(ud[0],drdx[0,0])-udmean[0]
uur=uu[1]*drdx[1,1]-uumean[1] ; udr=old_div(ud[1],drdx[1,1])-udmean[1]
uuh=uu[2]*drdx[2,2]-uumean[2] ; udh=old_div(ud[2],drdx[2,2])-udmean[2]
uup=uu[3]*drdx[3,3]-uumean[3] ; udp=old_div(ud[3],drdx[3,3])-udmean[3]
tuur=(uu0*tr[0]+uur*tr[1]+uuh*tr[2]+uup*tr[3]) # co-moving velocity components
tuuh=(uu0*th[0]+uur*th[1]+uuh*th[2]+uup*th[3])
tuup=(uu0*tp[0]+uur*tp[1]+uuh*tp[2]+uup*tp[3])
drh=rho*tuur*tuuh ; drp=rho*tuur*tuup ; dhp=rho*tuuh*tuup
drr=rho*tuur*tuur ; dpp=rho*tuup*tuup ; dhh=rho*tuuh*tuuh
# print(shape(drh))
# print(shape(rho))
# print(shape(tuur))
else:
rhomean+=rho
# velocity components:
uu0=uu[0]-uumean[0] ; ud0=ud[0]-udmean[0]
uur=uu[1]-uumean[1] ; udr=ud[1]-udmean[1]
uuh=uu[2]-uumean[2] ; udh=ud[2]-udmean[2]
uup=uu[3]-uumean[3] ; udp=ud[3]-udmean[3]
tuur=(uu0*tr[0]+uur*tr[1]+uuh*tr[2]+uup*tr[3])
tuuh=(uu0*th[0]+uur*th[1]+uuh*th[2]+uup*th[3])
tuup=(uu0*tp[0]+uur*tp[1]+uuh*tp[2]+uup*tp[3])
drh+=rho*tuur*tuuh ; drp+=rho*tuur*tuup ; dhp+=rho*tuuh*tuup
drr+=rho*tuur*tuur ; dpp+=rho*tuup*tuup ; dhh+=rho*tuuh*tuuh
drh/=rhomean ; drp/=rhomean ; dhp/=rhomean
drr/=rhomean ; dpp/=rhomean ; dhh/=rhomean
drh=drh.mean(axis=2) ; drp=drp.mean(axis=2) ; dhp=dhp.mean(axis=2)
drr=drr.mean(axis=2) ; dpp=dpp.mean(axis=2) ; dhh=dhh.mean(axis=2)
fout=open('merge_corv.dat', 'w')
for kx in arange(nx):
for ky in arange(ny):
# RR HH PP RH HP RP
fout.write(str(drr[kx,ky])+' '+str(dhh[kx,ky])+' '+str(dpp[kx,ky])+' '+str(drh[kx,ky])+' '+str(dhp[kx,ky])+' '+str(drp[kx,ky])+'\n')
fout.close()
def direk_laden(PGdb, lyr_name, shapename, pfad, iface, subset = None):
# Der Username der verwendet werden soll
if len(auth_user_global) > 0: # Ist belegt
auth_user = auth_user_global[0]
else:
auth_user = None
iface.layerTreeView().setCurrentLayer(None) # Damit von ganz aussen in der LEgende angefangen wird!
try:
db = PGdb
shapename_ohne_suffix = shapename.replace('.shp','')
shapename_ohne_suffix = str(str.strip(str.lower(shapename_ohne_suffix)))
if db != None:
try: # Geodatenbank
################################################
# Geometriespalte bestimmen -- geht nur mit OGR
try:
if auth_user == None:
outputdb = ogr.Open('pg: host =' + db.hostName() + ' dbname =' + db.databaseName() + ' schemas=' + schema + ' port=' + str(db.port()))
else:
outputdb = ogr.Open('pg: host =' + db.hostName() + ' dbname =' + db.databaseName() + ' schemas=' + schema + ' port=' + str(db.port()) + ' user='******'the_geom'
################################################
#das Laden der Daten
uri = QgsDataSourceUri()
uri.setConnection(db.hostName(),str(db.port()),db.databaseName(),'','')
if not auth_user == None:
uri.setUsername(auth_user)
uri.setDataSource('vorarlberg', shapename_ohne_suffix, geom_column)
erg_lyr = QgsVectorLayer(uri.uri(), lyr_name,"postgres")
# prüfen ob erfolgreich geladen
if not erg_lyr.isValid(): # nicht erfolgreich
QtWidgets.QMessageBox.about(None, "Fehler", "Layer " + shapename_ohne_suffix + " in der Datenbank nicht gefunden - es wird aufs Filesystem umgeschaltet")
erg_lyr = QgsVectorLayer(pfad + '/' + shapename, lyr_name,"ogr")
except Exception: # noch schlechter
QtWidgets.QMessageBox.about(None, "Fehler", "Layer " + shapename_ohne_suffix + " in der Datenbank nicht gefunden - es wird aufs Filesystem umgeschaltet")
erg_lyr = QgsVectorLayer(pfad + '/' + shapename, lyr_name,"ogr")
elif db == None:
erg_lyr = QgsVectorLayer(pfad + '/' + shapename, lyr_name,"ogr")
# Hier die attributive Auswahl
if subset != None:
erg_lyr.setSubsetString(subset)
# prüfen ob was sinnvolles geladen werden konnte
if erg_lyr.isValid():
return erg_lyr
else:
QtWidgets.QMessageBox.about(None, "Fehler", "Layer " + shapename + " konnte nicht geladen werden")
return None
except Exception as b:
return None
def __iter__(self, ngrams=None):
r"""Generate a sequence of words or tokens, using a re.match iteratively through the str
TODO:
- need two different self.lower and lemmatize transforms, 1 before and 1 after nonword detection
- each of 3 nonword filters on a separate line, setting w=None when nonword "hits"
- refactor `nonwords` arg/attr to `ignore_stopwords` to be more explicit
>>> doc = ("John D. Rock\n\nObjective: \n\tSeeking a position as Software --Architect-- / " +
... "_Project Lead_ that can utilize my expertise and")
>>> doc += " experiences in business application development and proven records in delivering 90's software. "
>>> doc += "\n\nSummary: \n\tSoftware Architect"
>>> doc += (" who has gone through several full product-delivery life cycles from requirements " +
... "gathering to deployment / production, and")
>>> doc += (" skilled in all areas of software development from client-side JavaScript to " +
... "database modeling. With strong experiences in:")
>>> doc += " \n\tRequirements gathering and analysis."
The python splitter will produce 2 tokens that are only punctuation ("/")
>>> len([s for s in doc.split() if s])
72
The built-in nonword REGEX ignores all-punctuation words, so there are 2 less here:
>>> len(list(Tokenizer(doc, strip=False, nonwords=False)))
70
In addition, punctuation at the end of tokens is stripped so "D. Rock" doesn't tokenize to "D." but rather "D"
>>> run_together_tokens = ''.join(list(Tokenizer(doc, strip=False, nonwords=False)))
>>> '/' in run_together_tokens or ':' in ''.join(run_together_tokens)
False
But you can turn off stripping when instantiating the object.
>>> all(t in Tokenizer(doc, strip=False, nonwords=True) for t in
... ('D', '_Project', 'Lead_', "90's", "product-delivery"))
True
"""
ngrams = ngrams or self.ngrams
# FIXME: Improve memory efficiency by making this ngram tokenizer an actual generator
if ngrams > 1:
original_tokens = list(self.__iter__(ngrams=1))
for tok in original_tokens:
yield tok
for i in range(2, ngrams + 1):
for tok in list_ngrams(original_tokens, n=i, join=' '):
yield tok
else:
for w in self.regex.finditer(self.doc):
if w:
w = w.group()
w = w if not self.strip_chars else str.strip(w, self.strip_chars)
w = w if not self.strip else self.strip(w)
w = w if not self.stem else self.stem(w)
w = w if not self.lemmatize else self.lemmatize(w)
w = w if not self.lower else self.lower(w)
# FIXME: nonword check before and after preprossing? (lower, lemmatize, strip, stem)
# 1. check if the default nonwords REGEX filter is requested, if so, use it.
# 2. check if a customized nonwords REGES filter is provided, if so, use it.
# 3. make sure the word isn't in the provided (or empty) set of nonwords
if w and (not self.nonwords or not re.match(r'^' + RE_NONWORD + '$', w)) and (
not self.nonwords_regex or not self.nonwords_regex.match(w)) and (
w not in self.nonwords_set):
yield w
def velread(prefix='merge_', nope=False, ifaphi=True):
# prefix = 'titan2/merge_'
rfile = prefix + '_r.dat'
fr = open(rfile, 'r')
s = str.split(str.strip(fr.readline()))
r = []
while (s):
r.append(s[0])
s = str.split(str.strip(fr.readline()))
fr.close()
r = asarray(r, dtype=double)
hfile = prefix + '_h.dat'
fh = open(hfile, 'r')
s = str.split(str.strip(fh.readline()))
h = []
while (s):
h.append(s[0])
s = str.split(str.strip(fh.readline()))
fh.close()
h = asarray(h, dtype=double)
h2, r2 = meshgrid(h, r)
nr, nh = shape(h2)
# density:
rhofile = prefix + '_rho.dat'
frho = open(rhofile, 'r')
s = str.split(str.strip(frho.readline()))
rho = []
while (s):
rho.append(s[0])
s = str.split(str.strip(frho.readline()))
frho.close()
rho = asarray(rho, dtype=double)
rho = reshape(rho, [nr, nh])
# pressure:
pfile = prefix + '_p.dat'
fp = open(pfile, 'r')
s = str.split(str.strip(fp.readline()))
p = []
while (s):
p.append(s[0])
s = str.split(str.strip(fp.readline()))
fp.close()
p = asarray(p, dtype=double)
p = reshape(p, [nr, nh])
# magnetic pressure:
pfile = prefix + '_mp.dat'
fmp = open(pfile, 'r')
s = str.split(str.strip(fmp.readline()))
mp = []
while (s):
mp.append(s[0])
s = str.split(str.strip(fmp.readline()))
fmp.close()
mp = asarray(mp, dtype=double)
mp = reshape(mp, [nr, nh])
# velocities:
uufile = prefix + '_uu.dat'
udfile = prefix + '_ud.dat'
puufile = prefix + '_puu.dat'
pudfile = prefix + '_pud.dat'
mpuufile = prefix + '_mpuu.dat'
mpudfile = prefix + '_mpud.dat'
uu0, uur, uuh, uup = rk.uread(uufile,
[nr, nh]) # density-averaged velocity
ud0, udr, udh, udp = rk.uread(udfile,
[nr, nh]) # density-averaged velocity
u0 = sqrt(fabs(uu0 * ud0))
ur = sqrt(fabs(uur * udr)) * sign(uur)
uh = sqrt(fabs(uuh * udh)) * sign(uuh)
up = sqrt(fabs(uup * udp)) * sign(uup)
if (nope):
pu0, pur, puh, pup = u0, ur, uh, up
mpu0, mpur, mpuh, mpup = u0, ur, uh, up
else:
puu0, puur, puuh, puup = rk.uread(
puufile, [nr, nh]) # pressure-averaged velocity
pud0, pudr, pudh, pudp = rk.uread(
pudfile, [nr, nh]) # pressure-averaged velocity
mpuu0, mpuur, mpuuh, mpuup = rk.uread(
mpuufile, [nr, nh]) # pressure-averaged velocity
mpud0, mpudr, mpudh, mpudp = rk.uread(
mpudfile, [nr, nh]) # pressure-averaged velocity
pu0 = sqrt(fabs(puu0 * pud0))
pur = sqrt(fabs(puur * pudr)) * sign(puur)
puh = sqrt(fabs(puuh * pudh)) * sign(puuh)
pup = sqrt(fabs(puup * pudp)) * sign(puup)
mpu0 = sqrt(fabs(mpuu0 * mpud0))
mpur = sqrt(fabs(mpuur * mpudr)) * sign(mpuur)
mpuh = sqrt(fabs(mpuuh * mpudh)) * sign(mpuuh)
mpup = sqrt(fabs(mpuup * mpudp)) * sign(mpuup)
if (ifaphi):
# vector potential A_phi:
pfile = prefix + '_aphi.dat'
faphi = open(pfile, 'r')
s = str.split(str.strip(faphi.readline()))
aphi = []
while (s):
aphi.append(s[0])
s = str.split(str.strip(faphi.readline()))
faphi.close()
aphi = asarray(aphi, dtype=double)
aphi = reshape(aphi, [nr, nh])
else:
aphi = rho
return r2, h2, rho, p, mp, u0, ur, uh, up, pu0, pur, puh, pup, mpu0, mpur, mpuh, mpup, aphi
def parseDMSString(str, order=0):
'''Parses a pair of coordinates that are in the order of
"latitude, longitude". The string can be in DMS or decimal
degree notation. If order is 0 then then decimal coordinates are assumed to
be in Lat Lon order otherwise they are in Lon Lat order. For DMS coordinates
it does not matter the order.'''
str = str.strip().upper() # Make it all upper case
try:
if re.search("[NSEW]", str) == None:
# There were no annotated dms coordinates so assume decimal degrees
# Remove any characters that are not digits and decimal
str = re.sub("[^\d.+-]+", " ", str).strip()
coords = re.split('\s+', str, 1)
if len(coords) != 2:
raise ValueError('Invalid Coordinates')
if order == 0:
lat = float(coords[0])
lon = float(coords[1])
else:
lon = float(coords[0])
lat = float(coords[1])
else:
# We should have a DMS coordinate
if re.search('[NSEW]\s*\d+.+[NSEW]\s*\d+', str) == None:
# We assume that the cardinal directions occur after the digits
m = re.findall('(.+)\s*([NS])[\s,;:]*(.+)\s*([EW])', str)
if len(m) != 1 or len(m[0]) != 4:
# This is either invalid or the coordinates are ordered by lon lat
m = re.findall('(.+)\s*([EW])[\s,;:]*(.+)\s*([NS])', str)
if len(m) != 1 or len(m[0]) != 4:
# Now we know it is invalid
raise ValueError('Invalid DMS Coordinate')
else:
# The coordinates were in lon, lat order
lon = LatLon.parseDMS(m[0][0], m[0][1])
lat = LatLon.parseDMS(m[0][2], m[0][3])
else:
# The coordinates are in lat, lon order
lat = LatLon.parseDMS(m[0][0], m[0][1])
lon = LatLon.parseDMS(m[0][2], m[0][3])
else:
# The cardinal directions occur at the beginning of the digits
m = re.findall('([NS])\s*(\d+.*?)[\s,;:]*([EW])(.+)', str)
if len(m) != 1 or len(m[0]) != 4:
# This is either invalid or the coordinates are ordered by lon lat
m = re.findall('([EW])\s*(\d+.*?)[\s,;:]*([NS])(.+)', str)
if len(m) != 1 or len(m[0]) != 4:
# Now we know it is invalid
raise ValueError('Invalid DMS Coordinate')
else:
# The coordinates were in lon, lat order
lon = LatLon.parseDMS(m[0][1], m[0][0])
lat = LatLon.parseDMS(m[0][3], m[0][2])
else:
# The coordinates are in lat, lon order
lat = LatLon.parseDMS(m[0][1], m[0][0])
lon = LatLon.parseDMS(m[0][3], m[0][2])
except:
raise ValueError('Invalid Coordinates')
return lat, lon
def ascframe(prefix='dumps/dump000', xmax=40.):
rfile = prefix + '_r.dat'
hfile = prefix + '_h.dat'
rhofile = prefix + '_rho.dat'
pfile = prefix + '_p.dat'
pmfile = prefix + '_pm.dat'
uufile = prefix + '_uu.dat'
udfile = prefix + '_ud.dat'
bfile = prefix + '_b.dat'
orifile = prefix + '_ori.dat'
nr, nh, nphi, a, t = dinforead(prefix)
# radial mesh:
fr = open(rfile, 'r')
s = str.split(str.strip(fr.readline()))
r = []
while (s):
r.append(s[0])
s = str.split(str.strip(fr.readline()))
fr.close()
r = asarray(r, dtype=double)
nr = size(r)
# polar angle mesh:
fh = open(hfile, 'r')
s = str.split(str.strip(fh.readline()))
th = []
while (s):
th.append(s[0])
s = str.split(str.strip(fh.readline()))
fh.close()
th = asarray(th, dtype=double)
nh = size(th)
# 2d-grid (order??)
h2, r2 = meshgrid(th, r)
print(shape(r2))
print(nr, nh)
# density:
frho = open(rhofile, 'r')
s = str.split(str.strip(frho.readline()))
rho = []
while (s):
rho.append(s[0])
s = str.split(str.strip(frho.readline()))
frho.close()
rho = asarray(rho, dtype=double)
rho = reshape(rho, [nr, nh])
# pressure:
fp = open(pfile, 'r')
fpm = open(pmfile, 'r')
s = str.split(str.strip(fp.readline()))
sm = str.split(str.strip(fpm.readline()))
p = []
pm = []
while (s):
p.append(s[0])
pm.append(sm[0])
s = str.split(str.strip(fp.readline()))
sm = str.split(str.strip(fpm.readline()))
fp.close()
fpm.close()
p = asarray(p, dtype=double)
pm = asarray(pm, dtype=double)
p = reshape(p, [nr, nh])
pm = reshape(pm, [nr, nh])
# velocity field:
fuu = open(uufile, 'r')
s = str.split(str.strip(fuu.readline()))
ur = []
uh = []
omega = []
while (s):
ur.append(s[1])
uh.append(s[2])
omega.append(old_div(double(s[3]), double(s[0])))
s = str.split(str.strip(fuu.readline()))
fuu.close()
ur = asarray(ur, dtype=double)
uh = asarray(uh, dtype=double)
ur = reshape(ur, [nr, nh])
uh = reshape(uh, [nr, nh])
omega = asarray(omega, dtype=double)
omega = reshape(omega, [nr, nh])
# origin variables:
fori = open(orifile, 'r')
s = str.split(str.strip(fori.readline()))
orr = []
orth = []
orphi = []
while (s):
orr.append(s[0])
orth.append(s[1])
orphi.append(s[2])
s = str.split(str.strip(fori.readline()))
fori.close()
orr = reshape(asarray(orr, dtype=double), [nr, nh])
orth = reshape(asarray(orth, dtype=double), [nr, nh])
orphi = reshape(asarray(orphi, dtype=double), [nr, nh])
# magnetic field (the last component is A_\phi)
fb = open(bfile, 'r')
s = str.split(str.strip(fb.readline()))
aphi = []
while (s):
aphi.append(s[3])
s = str.split(str.strip(fb.readline()))
fb.close()
aphi = reshape(asarray(aphi, dtype=double), [nr, nh])
print("size(aphi) = " + str(shape(aphi)))
rhor = 1. + sqrt(1. - a**2)
cmap = plt.get_cmap('jet')
ono = 30
lmin = -5.
lmax = 1.
lrholevs = (lmax - lmin) * arange(ono) / double(ono) + lmin
norm = BoundaryNorm(lrholevs, ncolors=cmap.N, clip=True)
x = r2 * sin(h2)
y = r2 * cos(h2)
clf()
fig = figure()
contourf(x, y, log10(rho + 1e-3), levels=lrholevs, norm=norm, cmap=cmap)
contour(x, y, aphi, colors='k')
xlim(0., xmax)
ylim(-xmax / 4., xmax / 2.)
bhole(rhor)
# need to put time in dinfo!
title('t=' + str(t) + ' (' + prefix + ')')
savefig(prefix + '_rho.eps')
savefig(prefix + '_rho.png')
close()
nxx = 10
rlevs = xmax * np.arange(nxx) / np.double(nxx)
thlevs = np.pi * np.arange(nxx) / np.double(nxx)
clf()
contourf(x, y, orr, cmap=cmap, levels=rlevs)
colorbar()
contour(x, y, r2, colors='w', levels=rlevs)
contour(x, y, h2, colors='w', levels=thlevs)
contour(x, y, orr, colors='k', levels=rlevs)
contour(x, y, orth, colors='k', levels=thlevs)
plt.xlim(0., xmax)
plt.ylim(-xmax / 4., xmax / 2.)
plt.savefig(prefix + "_ori.png")
close()
lmin = -2.
lmax = 5.
lbetalevs = (lmax - lmin) * arange(ono) / double(ono) + lmin
norm = BoundaryNorm(lbetalevs, ncolors=cmap.N, clip=True)
clf()
fig = figure()
contourf(r2 * sin(h2),
r2 * cos(h2),
log10(p / pm),
levels=lbetalevs,
norm=norm,
cmap=cmap)
colorbar()
contour(r2 * sin(h2), r2 * cos(h2), aphi, colors='k')
xlim(0., xmax)
ylim(-xmax / 2., xmax / 2.)
bhole(rhor)
# need to put time in dinfo!
title('t=' + str(t) + ' (' + prefix + ')')
savefig(prefix + '_beta.eps')
savefig(prefix + '_beta.png')
close()
vlevs = (arange(ono) / double(ono) * 2. - 1.) * 0.1
wv = where((r2 < 10.) & (r2 > 5.) & (fabs(cos(h2)) < 0.25))
# vlevs[0]=ur[wv].min()*1.5
# vlevs[ono-1]=ur[wv].max()*1.5
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
clf()
fig = figure()
contourf(r2 * sin(h2), r2 * cos(h2), ur, levels=vlevs, norm=norm)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
ur,
levels=[0.],
color='w',
linestyles='dotted')
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
levels=lrholevs,
colors='w')
xlim(0., xmax)
ylim(-xmax / 2., xmax / 2.)
bhole(rhor)
title('t=' + str(t))
savefig(prefix + '_ur.eps')
savefig(prefix + '_ur.png')
close()
clf()
fig = figure()
contourf(r2 * sin(h2), r2 * cos(h2), omega, levels=vlevs, norm=norm)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
levels=lrholevs,
colors='w')
xlim(0., xmax)
ylim(-xmax / 2., xmax / 2.)
bhole(rhor)
title('t=' + str(t))
savefig(prefix + '_o.eps')
savefig(prefix + '_o.png')
close()
nx = 20
ny = 20
xmin = 0.
ymin = -xmax / 4.
ymax = xmax / 2.
xflow = (xmax - xmin) * (arange(nx) + 0.5) / double(nx) + xmin
yflow = (ymax - ymin) * (arange(ny) + 0.5) / double(ny) + ymin
x2, y2 = meshgrid(xflow, yflow)
xgrid = (r2 * sin(h2)).flatten()
ygrid = (r2 * cos(h2)).flatten()
vxflow = (ur * sin(h2) + uh * cos(h2)).flatten()
vyflow = (-uh * sin(h2) + ur * cos(h2)).flatten()
vx = griddata(list(zip(xgrid, ygrid)), vxflow, (x2, y2), method='nearest')
vy = griddata(list(zip(xgrid, ygrid)), vyflow, (x2, y2), method='nearest')
vmin = 1e-8 # sqrt((vx**2+vy**2)).min()*9.
vmax = 1.0 # sqrt((vx**2+vy**2)).max()*1.1
vlevs = log10(
(old_div(vmax, vmin))**(old_div(arange(20), double(19))) * vmin)
vlevs[0] = -30.
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
clf()
fig = figure()
contourf(r2 * sin(h2),
r2 * cos(h2),
log10(sqrt(ur**2 + uh**2)),
levels=vlevs,
norm=norm)
colorbar()
title('t=' + str(t))
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
levels=lrholevs,
colors='w')
streamplot(xflow, yflow, vx, vy, color='k')
xlim(xmin, xmax)
ylim(ymin, ymax)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
plot([arms(a), arms(a)], [-1., 1.], color='w') #, linestyle='dotted')
fig.set_size_inches(10, 6)
savefig(prefix + '_stream.eps')
savefig(prefix + '_stream.png')
close()
def tedplotter(dire):
nr, nh, nphi, a, t = dinforead(dire + '/merge')
rfile = dire + '/merge_r.dat'
fr = open(rfile, 'r')
s = str.split(str.strip(fr.readline()))
r = []
while (s):
r.append(s[0])
s = str.split(str.strip(fr.readline()))
fr.close()
r = asarray(r, dtype=double)
# nr=size(r)
# polar angle mesh:
hfile = '/home/pasha/harm/harmpi/' + dire + '/merge_h.dat'
fh = open(hfile, 'r')
s = str.split(str.strip(fh.readline()))
th = []
while (s):
th.append(s[0])
s = str.split(str.strip(fh.readline()))
fh.close()
th = asarray(th, dtype=double)
# nh=size(th)
# 2d-grid (order??)
h2, r2 = meshgrid(th, r)
print(shape(r2))
print(nr, nh)
# pressure:
pfile = dire + '/merge_p.dat'
fp = open(pfile, 'r')
s = str.split(str.strip(fp.readline()))
p = []
while (s):
p.append(s[0])
s = str.split(str.strip(fp.readline()))
fp.close()
p = asarray(p, dtype=double)
p = reshape(p, [nr, nh])
# TudMA, TudEM
trr = []
thh = []
tpp = []
trp = []
thp = []
tmafile = dire + '/merge_tudma.dat'
ftma = open(tmafile, 'r')
s = str.split(str.strip(ftma.readline()))
rho = []
while (s):
trr.append(s[5])
thh.append(s[10])
tpp.append(s[15])
trp.append(s[7])
thp.append(s[11])
s = str.split(str.strip(ftma.readline()))
ftma.close()
trr = reshape(asarray(trr, dtype=double), [nr, nh])
thh = reshape(asarray(thh, dtype=double), [nr, nh])
tpp = reshape(asarray(tpp, dtype=double), [nr, nh])
trp = reshape(asarray(trp, dtype=double), [nr, nh])
thp = reshape(asarray(thp, dtype=double), [nr, nh])
emtrr = []
emthh = []
emtpp = []
emtrp = []
emthp = []
temfile = dire + '/merge_tudem.dat'
ftem = open(temfile, 'r')
s = str.split(str.strip(ftem.readline()))
rho = []
while (s):
emtrr.append(s[5])
emthh.append(s[10])
emtpp.append(s[15])
emtrp.append(s[7])
emthp.append(s[11])
s = str.split(str.strip(ftem.readline()))
ftem.close()
emtrr = reshape(asarray(emtrr, dtype=double), [nr, nh])
emthh = reshape(asarray(emthh, dtype=double), [nr, nh])
emtpp = reshape(asarray(emtpp, dtype=double), [nr, nh])
emtrp = reshape(asarray(emtrp, dtype=double), [nr, nh])
emthp = reshape(asarray(emthp, dtype=double), [nr, nh])
alevs1 = 1e-3 * 0.5
alevs2 = 1.0 * 0.5
na = 30
alevs = (old_div(alevs2, alevs1))**(old_div(arange(na),
double(na - 1))) * alevs1
alevs = around(alevs, 3)
alevs[0] = 0.
alevs = unique(alevs)
cmap = plt.get_cmap('jet')
cmap.set_bad('white', 1.)
norm = BoundaryNorm(alevs, ncolors=cmap.N, clip=False)
rmax = 15.
rhor = 1. + (1. - a**2)**0.5
clf()
fig = figure()
subplot(121)
contourf(r2 * sin(h2),
r2 * cos(h2),
fabs(old_div((trp + emtrp), p)),
levels=alevs,
norm=norm,
cmap=cmap)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2), (old_div((trp + emtrp), p)),
colors='w',
levels=[0.])
contour(r2 * sin(h2), r2 * cos(h2), p, colors='w', linestyles='dotted')
xlim(0., rmax)
ylim(old_div(-rmax, 2.), old_div(rmax, 2.))
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
title(r'$\alpha_{r\varphi}$')
subplot(122)
contourf(r2 * sin(h2),
r2 * cos(h2),
fabs(old_div((thp + emthp), p)),
levels=alevs,
norm=norm,
cmap=cmap)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2), (old_div((thp + emthp), p)),
colors='w',
levels=[0.])
contour(r2 * sin(h2), r2 * cos(h2), p, colors='w', linestyles='dotted')
xlim(0., rmax)
ylim(old_div(-rmax, 2.), old_div(rmax, 2.))
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
title(r'$\alpha_{z\varphi}$')
fig.set_size_inches(15, 5)
fig.tight_layout(pad=0., h_pad=-2.)
savefig(dire + '/alphas.eps')
close()
def mplotter(dire='.', nope=False):
dmatrix = False
nr, nh, nphi, a, t = dinforead(dire + '/merge')
r2, h2, rho, p, pm, u0, ur, uh, up, pu0, pur, puh, pup, mpu0, mpur, mpuh, mpup, aphi = velread(
dire + '/merge')
#
# velocity correlation matrix:
if (dmatrix):
dfile = dire + '/merge_corv.dat'
fd = open(dfile, 'r')
# s=str.split(str.strip(fd.readline()))
dxy = zeros([3, 3, nr, nh], dtype=double)
# vtrace1=zeros([nr,nh], dtype=double)
for kx in arange(nr):
for ky in arange(nh):
s = str.split(str.strip(fd.readline()))
dxy[0, 0, kx, ky] = double(s[0])
dxy[1, 1, kx, ky] = double(s[1])
dxy[2, 2, kx, ky] = double(s[2])
dxy[0, 1, kx, ky] = double(s[3])
dxy[1, 0, kx, ky] = double(s[3])
dxy[1, 2, kx, ky] = double(s[4])
dxy[2, 1, kx, ky] = double(s[4])
dxy[0, 2, kx, ky] = double(s[5])
dxy[2, 0, kx, ky] = double(s[5])
#
vtrace = trace(dxy, axis1=0, axis2=1)
# print "vtrace = "+str(vtrace1.min())+" to "+str(vtrace1.max())
# print "vtrace = "+str(vtrace1.min())+" to "+str(vtrace1.max())
# vertical slice:
rrangemin = 10.
rrangemax = 12.
rrange = double((r2 > rrangemin) * (r2 < rrangemax))
# averaging over radial velocity
vtracemean = old_div((vtrace * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
urmean = old_div((ur * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
upmean = old_div((up * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
uhmean = old_div((uh * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
th = unique(h2)
fig = figure()
clf()
plot(cos(th), sqrt(vtracemean), label='velocity RMS', color='b')
plot(cos(th), urmean, label='radial velocity', color='r')
plot(cos(th), -urmean, color='r', linestyle='dotted')
plot(cos(th), upmean, label='rotation velocity', color='k')
# plot(cos(th), th*0.+rrangemin/(rrangemin**1.5+a), color='k', linestyle='dotted')
# plot(cos(th), th*0.+rrangemax/(rrangemax**1.5+a), color='k', linestyle='dotted')
plot(cos(th), uhmean, label='latitudinal velocity', color='g')
plot(cos(th), -uhmean, color='g', linestyle='dotted')
yscale('log')
legend(loc='best')
xlabel(r'$\cos\theta$')
ylabel('$v/c$')
fig.set_size_inches(12, 6)
savefig(dire + '/velcompare.eps')
close()
ono = 20 # number of angular frequency levels
rmin = old_div(h.Risco(a), 2.)
rhor = 1. + (1. - a**2)**0.5
rmax = 20.
rlevs = (rmax / rmin * 1.5)**(old_div(arange(ono), double(ono))) * rmin
olevs = old_div(1., (rlevs**1.5 + a))
olevs = olevs[::-1]
olevs[ono - 1] = olevs.max() * 10.
cmap = plt.get_cmap('jet')
cmap.set_bad('white', 1.)
# grr=1./(1.-2./r+a**2/r**2)
norm = BoundaryNorm(olevs, ncolors=cmap.N, clip=True)
# density plot:
clf()
contourf(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
cmap=cmap,
nlevels=30)
contour(r2 * sin(h2), r2 * cos(h2), aphi, colors='k')
xlim(0., rmax)
ylim(old_div(-rmax, 2.), old_div(rmax, 2.))
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
savefig(dire + '/rho.eps')
savefig(dire + '/rho.png')
# beta magnetization plot:
beta1 = 0.1
beta2 = 1000.
nbeta = 30
betalevs = log10(
(old_div(beta2, beta1))**(old_div(arange(nbeta), double(nbeta - 1))) *
beta1)
clf()
contourf(r2 * sin(h2),
r2 * cos(h2),
log10(old_div(p, pm)),
levels=betalevs)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
log10(old_div(p, pm)),
levels=[0.],
colors='w',
linewidths=2.)
xlim(0., rmax)
ylim(old_div(-rmax, 2.), old_div(rmax, 2.))
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
savefig(dire + '/beta.eps')
savefig(dire + '/beta.png')
# radial velocity
clf()
fig = figure()
contourf(r2 * sin(h2), r2 * cos(h2), up, levels=olevs, norm=norm)
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
old_div(1., ((r2 * sin(h2))**1.5 + a)),
colors='k',
levels=olevs,
linewidths=1)
contour(r2 * sin(h2), r2 * cos(h2), log10(rho + 1e-3), colors='w')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
fig.set_size_inches(8, 8)
savefig(dire + '/omega.eps')
savefig(dire + '/omega.png')
vlevs = (arange(ono) / double(ono) * 2. - 1.) * 0.01
vlevs[0] = ur.min() * 1.1
vlevs[ono - 1] = ur.max() * 1.1
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
hdisk = 0.25
wdisk = double(fabs(cos(h2)) < hdisk)
wwind = double(fabs(cos(h2)) > hdisk)
urmean = old_div(((rho * ur) * wdisk).mean(axis=1),
(rho * wdisk).mean(axis=1))
urmeanp = old_div(((p * pur) * wdisk).mean(axis=1),
(p * wdisk).mean(axis=1))
# flow lines:
nx = 20
ny = 21
xmin = 0.
xmax = 30.
ymin = -10.
ymax = 10.
cs = 1. #p/rho/(4./3.)
xflow = (xmax - xmin) * (arange(nx) + 0.5) / double(nx) + xmin
yflow = (ymax - ymin) * (arange(ny) + 0.5) / double(ny) + ymin
x2, y2 = meshgrid(xflow, yflow)
# vxfun=interp2d(r2*sin(h2), r2*cos(h2), ur*sin(h2)+uh*cos(h2),kind='linear')
# vyfun=interp2d(r2*sin(h2), r2*cos(h2), -uh*sin(h2)+ur*cos(h2),kind='linear')
# vx=vxfun(xflow, yflow) ; vy=vyfun(xflow, yflow)
xgrid = (r2 * sin(h2)).flatten()
ygrid = (r2 * cos(h2)).flatten()
vxflow = (ur / cs * sin(h2) + uh / cs * cos(h2)).flatten()
vyflow = (-uh / cs * sin(h2) + ur / cs * cos(h2)).flatten()
pvxflow = (pur / cs * sin(h2) + puh / cs * cos(h2)).flatten()
pvyflow = (-puh / cs * sin(h2) + pur / cs * cos(h2)).flatten()
# vxflow=xgrid ; vyflow=ygrid
vx = griddata(list(zip(xgrid, ygrid)), vxflow, (x2, y2), method='nearest')
vy = griddata(list(zip(xgrid, ygrid)), vyflow, (x2, y2), method='nearest')
pvx = griddata(list(zip(xgrid, ygrid)),
pvxflow, (x2, y2),
method='nearest')
pvy = griddata(list(zip(xgrid, ygrid)),
pvyflow, (x2, y2),
method='nearest')
vmin = 1e-8 # sqrt((vx**2+vy**2)).min()*9.
vmax = 0.1 # sqrt((vx**2+vy**2)).max()*1.1
vlevs = log10(
(old_div(vmax, vmin))**(old_div(arange(20), double(19))) * vmin)
vlevs[0] = -30.
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
# vmax=0.01
# vmin=-0.01
# vlevs=(vmax-vmin)*(arange(20)/double(19))+vmin
# norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
clf()
fig = figure()
contourf(r2 * sin(h2),
r2 * cos(h2),
log10(old_div(sqrt(ur**2 + uh**2), cs)),
levels=vlevs,
norm=norm)
# contourf(xflow, yflow, sqrt(vx**2+vy**2),levels=vlevs,norm=norm)
colorbar()
streamplot(xflow, yflow, pvx, pvy, color='k')
streamplot(xflow, yflow, vx, vy, color='w')
xlim(xmin, xmax)
ylim(ymin, ymax)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
fig.set_size_inches(15, 8)
savefig(dire + '/stream.eps')
savefig(dire + '/stream.png')
close()
# near eqplane:
xscale = 10.
nx = 7
ny = 5
xflow = xscale * (arange(nx)) / double(nx - 1)
yflow = xscale * hdisk * ((arange(ny)) / double(ny - 1) * 2. - 1.)
x2, y2 = meshgrid(xflow, yflow)
vx = griddata(list(zip(xgrid, ygrid)), vxflow, (x2, y2), method='nearest')
vy = griddata(list(zip(xgrid, ygrid)), vyflow, (x2, y2), method='nearest')
pvx = griddata(list(zip(xgrid, ygrid)),
pvxflow, (x2, y2),
method='nearest')
pvy = griddata(list(zip(xgrid, ygrid)),
pvyflow, (x2, y2),
method='nearest')
vratmin = 0.6 # 0.2
vratmax = 1.1 # 1.
nv = 10
vratlevs = (arange(nv + 1)) / double(nv) * (vratmax - vratmin) + vratmin
# vratlevs[9]=1.3
clf()
fig = figure()
# (sqrt(pur**2+puh**2))/(sqrt(ur**2+uh**2))
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(pur, ur),
levels=vratlevs,
cmap='jet')
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
old_div(pur, ur),
levels=[1.],
colors='w')
plot([0., xscale], [0., 0.], color='k', linestyle='dotted')
# streamplot(xflow, yflow, pvx, pvy,color='k')
streamplot(xflow, yflow, vx, vy, color='k')
xlim(0.5, xscale)
ylim(-xscale * hdisk, xscale * hdisk)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
fig.set_size_inches(5 * 2 + 1, 5 * 2 * hdisk + 1.5)
fig.tight_layout(pad=0.5)
savefig(dire + '/streamband.eps')
savefig(dire + '/streamband.png')
close()
vratmin = 0.5 # 0.2
vratmax = 2.5 # 1.
nv = 10
vratlevs = (arange(nv + 1)) / double(nv) * (vratmax - vratmin) + vratmin
clf()
fig = figure()
# (sqrt(pur**2+puh**2))/(sqrt(ur**2+uh**2))
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(mpur, pur),
levels=vratlevs,
cmap='jet')
colorbar()
contour(r2 * sin(h2),
r2 * cos(h2),
old_div(mpur, pur),
levels=[1.],
colors='w')
plot([0., xscale], [0., 0.], color='k', linestyle='dotted')
# streamplot(xflow, yflow, pvx, pvy,color='k')
streamplot(xflow, yflow, vx, vy, color='k')
xlim(0.5, xscale)
ylim(-xscale * hdisk, xscale * hdisk)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
fig.set_size_inches(5 * 2 + 1, 5 * 2 * hdisk + 1.5)
fig.tight_layout(pad=0.5)
savefig(dire + '/streamband_mag.eps')
savefig(dire + '/streamband_mag.png')
close()
# vertical slice:
rrange = double((r2 > 5.) * (r2 < 10.))
urhmean = old_div((ur * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
uhhmean = old_div((uh * rho * rrange).mean(axis=0),
(rho * rrange).mean(axis=0))
urhmeanp = old_div((pur * p * rrange).mean(axis=0),
(p * rrange).mean(axis=0))
uhhmeanp = old_div((puh * p * rrange).mean(axis=0),
(p * rrange).mean(axis=0))
# print shape(urhmean)
# print shape(h)
th = unique(h2)
clf()
fig = figure()
subplot(211)
plot(cos(th), urhmean, color='k')
plot(cos(th), urhmeanp, color='r')
# plot(cos(th), uhhmean, color='k', linestyle='dotted')
# plot(cos(th), uhhmeanp, color='r', linestyle='dotted')
xlabel(r'$\cos\theta$')
ylabel(r'$u^r$')
ylim(-0.035, 0.005)
xlim(-hdisk, hdisk)
subplot(212)
plot(cos(th), old_div(urhmeanp, urhmean), color='k')
xlabel(r'$\cos\theta$')
ylabel(r'$\langle u^r\rangle_p / \langle u^r\rangle_\rho$')
xlim(-hdisk, hdisk)
ylim(0., 1.)
fig.set_size_inches(8, 6)
fig.tight_layout(pad=1.0, h_pad=0.5, w_pad=0.5)
savefig(dire + '/vverts.eps')
savefig(dire + '/vverts.png')
close()
clf()
contourf(r2 * sin(h2), r2 * cos(h2), uh, levels=vlevs, norm=norm)
colorbar()
# contour(r2*sin(h2), r2*cos(h2), 1./((r2*sin(h2))**1.5+a), colors='k',levels=olevs,linewidths=1)
contour(r2 * sin(h2), r2 * cos(h2), log10(rho + 1e-3), colors='w')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
savefig(dire + '/uh.eps')
# turbulent velocity parameters:
vmin = 1e-8
vmax = 10.
ono = 100
vlevs = (old_div(vmax, vmin))**(old_div(arange(ono),
double(ono - 1))) * vmin
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
if (dmatrix & False):
clf()
fig = figure()
# subplot(331)
contourf(r2 * sin(h2), r2 * cos(h2), vtrace, levels=vlevs, norm=norm)
colorbar()
# contour(r2*sin(h2), r2*cos(h2), 1./((r2*sin(h2))**1.5+a), colors='k',levels=olevs,linewidths=1)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
# contour(r2*sin(h2), r2*cos(h2), cos(h2), colors='y',linestyles='dashed',levels=[-hdisk, hdisk])
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
savefig(dire + '/vturb.eps')
close()
vlevs = (2. * (old_div(arange(ono), double(ono - 1))) - 1.) * 0.5
vlevs[0] = -1.
vlevs[ono - 1] = 1.
norm = BoundaryNorm(vlevs, ncolors=cmap.N, clip=True)
clf()
fig = figure()
subplot(331)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[0, 0], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{rr}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(332)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[0, 1], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{r\theta}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(333)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[0, 2], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{r\varphi}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(334)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[1, 0], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\theta r}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(335)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[1, 1], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\theta\theta}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(336)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[1, 2], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\theta\varphi}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(337)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[2, 0], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\varphi r}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(338)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[2, 1], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\varphi\theta}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
subplot(339)
contourf(r2 * sin(h2),
r2 * cos(h2),
old_div(dxy[2, 2], vtrace),
levels=vlevs,
norm=norm)
contour(r2 * sin(h2),
r2 * cos(h2),
log10(rho + 1e-3),
colors='w',
linestyles='dotted')
title(r'$\Delta_{\varphi\varphi}$')
xlim(0., 20.)
ylim(-10., 10.)
xlabel(r'$\varpi$')
ylabel(r'$z$')
bhole(rhor)
fig.set_size_inches(12, 12)
fig.tight_layout(pad=1.0, h_pad=0.5, w_pad=0.5)
savefig(dire + '/dmatrix.eps')
close()
if (dmatrix & False):
# the tetrad has reasonable physical sense only if u^h << u^r,phi
drrdisk = old_div((dxy[0, 0] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
dhhdisk = old_div((dxy[1, 1] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
dppdisk = old_div((dxy[2, 2] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
drpdisk = old_div((dxy[0, 2] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
drhdisk = old_div((dxy[0, 1] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
dhpdisk = old_div((dxy[1, 2] * wdisk * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
dhpdiskplus = old_div((dxy[1, 2] * wdisk * cos(h2) * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
# dhpdiskplus=(dxy[1,2]*wdisk*cos(h2)*rho).mean(axis=1)/(wdisk*rho).mean(axis=1)
drhdiskplus = old_div((dxy[1, 0] * wdisk * cos(h2) * rho).mean(axis=1),
(wdisk * rho).mean(axis=1))
# drhdiskplus=(dxy[1,0]*wdisk*cos(h2)*rho).mean(axis=1)/(wdisk*rho).mean(axis=1)
dtot = drrdisk + dhhdisk + dppdisk
clf()
plot(r, old_div(drrdisk, dtot), color='k')
plot(r, old_div(dhhdisk, dtot), color='g')
plot(r, old_div(dppdisk, dtot), color='r')
plot(r, old_div(drpdisk, dtot), color='r', linestyle='dotted')
plot(r, old_div(drhdisk, dtot), color='g', linestyle='dotted')
plot(r, old_div(dhpdisk, dtot), color='orange', linestyle='dotted')
plot(r, old_div(dhpdiskplus, dtot), color='orange', linestyle='dashed')
plot(r, old_div(drhdiskplus, dtot), color='g', linestyle='dashed')
plot(r * 0. + h.Risco(a),
arange(nr) / double(nr - 1) * 2. - 1.,
color='k',
linestyle='dotted')
xlabel(r'$r$')
ylabel(r'$\Delta_{ik} / \Delta_{\rm tot}$')
xscale('log')
xlim(1, 20)
# ylim(-1e-2,1e-2)
savefig(dire + '/dmatrix_rslice.eps')
drrvert = old_div((dxy[0, 0] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
dhhvert = old_div((dxy[1, 1] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
dppvert = old_div((dxy[2, 2] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
drpvert = old_div((dxy[0, 2] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
drhvert = old_div((dxy[0, 1] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
dhpvert = old_div((dxy[1, 2] * rrange * rho).mean(axis=0),
(rrange * rho).mean(axis=0))
dvertot = drrvert + dhhvert + dppvert
clf()
plot(cos(th), old_div(drrvert, dvertot), color='k')
plot(cos(th), old_div(dhhvert, dvertot), color='g')
plot(cos(th), old_div(dppvert, dvertot), color='r')
plot(cos(th), old_div(drpvert, dvertot), color='r', linestyle='dotted')
plot(cos(th), old_div(drhvert, dvertot), color='k', linestyle='dotted')
plot(cos(th),
old_div(dhpvert, dvertot),
color='orange',
linestyle='dotted')
xlabel(r'$\cos \theta$')
ylabel(r'$\Delta_{ik} / \Delta_{\rm tot}$')
savefig(dire + '/dmatrix_thslice.eps')
close('all')
def process_incoming(incoming, id_string):
# assign variables
if len(incoming) >= 2:
identity = incoming[0].strip().lower()
text = incoming[1].strip().lower()
# if the tuple contains an id_string, use it, otherwise default
if id_string is None and len(incoming) >= 3:
id_string = incoming[2]
else:
responses.append({
'code':
SMS_API_ERROR,
'text':
_(u"Missing 'identity' "
u"or 'text' field.")
})
return
if not len(identity.strip()) or not len(text.strip()):
responses.append({
'code':
SMS_API_ERROR,
'text':
_(u"'identity' and 'text' fields can "
u"not be empty.")
})
return
# if no id_string has been supplied
# we expect the SMS to be prefixed with the form's sms_id_string
if id_string is None:
keyword, text = [s.strip() for s in text.split(None, 1)]
xform = XForm.objects.get(user__username=username,
sms_id_string=keyword)
else:
xform = XForm.objects.get(user__username=username,
id_string=id_string)
if not xform.allows_sms:
responses.append({
'code': SMS_SUBMISSION_REFUSED,
'text': _(u"The form '%(id_string)s' does not "
u"accept SMS submissions.") % {
'id_string': xform.id_string
}
})
return
# parse text into a dict object of groups with values
json_submission, medias_submission, notes = parse_sms_text(
xform, identity, text)
# retrieve sms_response if exist in the form.
json_survey = json.loads(xform.json)
if json_survey.get('sms_response'):
resp_str.update({'success': json_survey.get('sms_response')})
# check that the form contains at least one filled group
meta_groups = sum(
[1 for k in list(json_submission) if k.startswith('meta')])
if len(list(json_submission)) <= meta_groups:
responses.append({
'code':
SMS_PARSING_ERROR,
'text':
_(u"There must be at least one group of "
u"questions filled.")
})
return
# check that required fields have been filled
required_fields = [
f.get('name') for g in json_survey.get('children', {})
for f in g.get('children', {})
if f.get('bind', {}).get('required', 'no') == 'yes'
]
submitted_fields = {}
for group in json_submission.values():
submitted_fields.update(group)
for field in required_fields:
if not submitted_fields.get(field):
responses.append({
'code': SMS_SUBMISSION_REFUSED,
'text': _(u"Required field `%(field)s` is "
u"missing.") % {
'field': field
}
})
return
# convert dict object into an XForm string
xml_submission = dict2xform(jsform=json_submission,
form_id=xform.id_string)
# compute notes
data = {}
for g in json_submission.values():
data.update(g)
for idx, note in enumerate(notes):
try:
notes[idx] = note.replace('${', '{').format(**data)
except Exception as e:
logging.exception(
_(u'Updating note threw exception: %s' % text(e)))
# process_incoming expectes submission to be a file-like object
xforms.append(BytesIO(xml_submission.encode('utf-8')))
medias.append(medias_submission)
json_submissions.append(json_submission)
xforms_notes.append(notes)
def importieren(self, pfad = None, liste = None, ergaenzungsname = None, anzeigename_ergaenzen = False, nach_unten = False, force_gruppenname = None, force_scale = None, DBschema_erweitern = True):
# Der Username der verwendet werden soll
if len(auth_user_global) > 0: # Ist belegt
auth_user = auth_user_global[0]
else:
auth_user = None
self.iface.layerTreeView().setCurrentLayer(None) # None entspricht einem Null Pointer -> Auswahl wird entfernt -> nicht ausgewählt
# Wird in der Regel verwendet wenn
# Gemeindespezifische Daten geladen werden
# zwecks Übersichtlichkeit
self.anzeigename_aendern = anzeigename_ergaenzen
self.gruppen_erg_name = ergaenzungsname # oberste Gruppe/Layer wird mit diesem Namen ergänzt!
if pfad == "":
return
# Das Qgis Projektfile ist ein XML und wird
# hier eingelesen
try:
#pfad = 'd:/delme.qgs'
#xml = file(pfad).read()
#QtWidgets.QMessageBox.about(None, "Fehler", str(locale.getpreferredencoding()))
project_file = open(pfad,'r',-1,'UTF8')
xml = project_file.read()
d = QtXml.QDomDocument()
d.setContent(xml)
except IOError:
QtWidgets.QMessageBox.about(None, "Fehler", "QGIS Projektdatei " + pfad + " nicht gefunden!")
return
# Die gewünschten Tagelemente aus dem XML herauslesen
self.maps = d.elementsByTagName("maplayer")
self.legends = d.elementsByTagName("legendlayer")
self.gruppen = d.elementsByTagName("legendgroup")
self.lyr = None
self.joinlayerid = None
#Zuerst den aktuellen Pfad auf dem
#Qgis steht auslesen (kann z.B. ein lokaler Pfad sein
#von dem ein Projekt geladen wird
CurrentPath = QgsProject.instance().fileName()
#Dann auf den jeweiligen Pfad setzen, von dem geladen wird. Sonst kann kein Projekt
#mit absoluten Pfaden abgespeichert werden (für Layer die mit dem
#VogisMenü geladen werden)
QgsProject.instance().setFileName(pfad)
#falls es länger dauert, ein kurzes Infofenster
#für den Anwender
progressi = QtWidgets.QProgressDialog('Lade Daten','Abbrechen',0,self.maps.length())
progressi.setFixedSize(350,90)
btnCancel = QtWidgets.QPushButton()
btnCancel.setText('Abbrechen')
btnCancel.setFixedSize(70,30)
progressi.setCancelButton(btnCancel)
progressi.setWindowModality(1)
#Schleife geht alle Layer die in der Legende aufscheinen durch. Hier
#ist nämlich die reihenfolge festgelegt, wie sie in Qgis dargestellt werden
#Diese Schleife brauch ich nur für die richtige Reihenfolge
#der importierten Layer in Qgis
zaehler = 0 # der Zähler für die Anzahl der geladenen Layer
j = 0
#for j in range(self.legends.length(),-1,-1):
for j in range(self.legends.length()):
# Schleife geht alle Layer die in der maplayer tags aufscheinen durch
# dort ist nämlich die wirkliche Information für die Darstellung im
# Qgis. Also wird zuerst der Layer per ID in der Obigen
# Schleife ausgewählt und dann in dieser Schleife im maplayertag
# identifiziert
# self.lyr=None
for i in range(self.maps.length()):
# prüfen ob der jeweilige layer nicht schon geladen ist. um das zu tun
# müssen wir im vogis projektimport die identifikation über
# die layerid tag machen. berücksichtigt werden muß auch
# ob die layerid durch den ergaenzungsnamen erweitert wurde!!
quelli = self.maps.item(i).namedItem("id").firstChild().toText().data()
laden = True
lyr_tmp = None
for lyr_tmp in QgsProject.instance().mapLayers(): #alle bereits geladenen Layer durchgehen -> Dictionary
#QtWidgets.QMessageBox.about(None, "Fehler", str(lyr_tmp))
if (ergaenzungsname == None) and (lyr_tmp == quelli): #Treffer: der Layer ist schon geladen
laden = False
if (ergaenzungsname != None) and (lyr_tmp == quelli + ergaenzungsname): #Treffer: der Layer ist schon geladen
laden = False
#Die Layerid ist in den legend tags und maplayer tags gleich
#so kann ein layer genau identifiziert werden. ist laden zudem True
#gehts also weiter
if (self.maps.item(i).namedItem("id").firstChild().toText().data() == self.legends.item(j).namedItem("filegroup").namedItem("legendlayerfile").attributes().namedItem("layerid").nodeValue()) and laden:
#ACHTUNG: Wieder aktivieren!!!!!!!!!!
# wenn nur ein Teil der Layer eines Projekts geladen werden sollen. Die Liste enthält die
# Namen dieser Layer
if liste != None:
brake_val = True
for nd in range(len(liste)):
if liste[nd] == self.legends.item(j).attributes().namedItem("name").nodeValue():
brake_val = False
break
if brake_val:
continue # Nächster Layer, ist nicht auf der Liste
# prüfen, ob der jeweilige Layer eine oder mehrere Jointabelle(n) verwendet
self.joinlayerid = ''
for sj in range(self.maps.item(i).namedItem("vectorjoins").childNodes().length()):
# leider muss ich dann nochmals alles durchgehen....
for lj in range(self.maps.length()):
if (self.maps.item(lj).namedItem("id").firstChild().toText().data() == self.maps.item(i).namedItem("vectorjoins").childNodes().item(sj).attributes().namedItem('joinLayerId').nodeValue()):
self.joinlayerid = self.maps.item(i).namedItem("vectorjoins").childNodes().item(sj).attributes().namedItem('joinLayerId').nodeValue()
#ACHTUNG: unbedingt den nodeValue der ID ändern wenn Gemeindeweise
#geladen wird (DKM) Da in den Qgis Projekten der Gemeinden die jeweilig ID des Layers
#der Einfachheit halber ident ist, würde so qgis den Layer nicht importieren!!!
#So wie der Layername in der Darstellung geändert wird wird auch die ID des Nodes VOR
#dem Laden geändert, damit Qgis das dann so übernimmt!!
noddi = self.maps.item(i).namedItem("id")
if ergaenzungsname != None:
noddi.firstChild().setNodeValue(noddi.firstChild().nodeValue() + ergaenzungsname)
#Abhängig von der vogisini wird das Encoding
#aus der Projektdatei genommen oder CPG datei oder
#wird auf System gesetzt
#ist self.vogisEncoding == project dann werden die Einstellungen des Projekt verwendet
base_name = os.path.dirname(pfad) + '/' + os.path.basename(self.maps.item(i).namedItem("datasource").firstChild().nodeValue())
# Achtung, zwischen absolutem und relativem Pfad unterscheiden
if len(os.path.dirname(self.maps.item(i).namedItem("datasource").firstChild().nodeValue())) < 2: # relativer Pfad im QGIS Projekt!
base_name = os.path.dirname(pfad) + '/' + os.path.basename(self.maps.item(i).namedItem("datasource").firstChild().nodeValue())
else: # absoluter Pfad im QGIS Projekt!
base_name = self.maps.item(i).namedItem("datasource").firstChild().nodeValue()
if vogisEncoding_global[0] == 'menue': # entweder CPG datei oder System setzen
try: # gibts ein cpg datei
datei = open(os.path.splitext(base_name)[0] + '.cpg','r')
codierung_string = datei.read()
datei.close()
self.maps.item(i).namedItem("provider").attributes().namedItem('encoding').setNodeValue(codierung_string)
except IOError: # Es wird der Wert System zugewiesen
self.maps.item(i).namedItem("provider").attributes().namedItem('encoding').setNodeValue('System')
# unbedingt ALLES DESELEKTIEREN, sonst Probleme mit der Reihenfolge
self.iface.layerTreeView().setCurrentLayer(None) # None entspricht einem Null Pointer -> Auswahl wird entfernt -> nicht ausgewählt
nv_ds = ''
nv_provider = ''
nv_encoding = ''
#############################################################################
# Das Umschalten der Vektordaten auf die Geodatenbank - unter Bedingungen
# es darf kein Layer aus einer Geodatenbank hier verwurschtelt werden
#############################################################################
if self.maps.item(i).attributes().namedItem('type').nodeValue() == 'vector' and vogisDb_global[0] != 'filesystem geodaten' and self.maps.item(i).namedItem("datasource").firstChild().nodeValue().find('host') < 0:
tablename = self.maps.item(i).namedItem("datasource").firstChild().nodeValue()
sql = ''
rc=[]
db_ogr = ''
# prüfen ob der layer eine shape datenquelle ist
# und ob ein subset definiert ist
if tablename.find('.shp') > 0 and (tablename.lower().find('subset') > 0 or tablename.lower().find('SUBSET') > 0 or tablename.lower().find('Subset') > 0):
rc = textfilter_subset(self.maps.item(i).namedItem("datasource").firstChild().nodeValue())
tablename = rc[0]
sql = rc[1]
db_ogr = rc[0]
else:
tablename = os.path.basename(self.maps.item(i).namedItem("datasource").firstChild().nodeValue()).split('.shp')[0]
db_ogr = tablename
if ergaenzungsname != None and DBschema_erweitern:
tablename = str.lower('\"' + ergaenzungsname + '\".\"' + tablename + '\"')
else:
tablename = str.lower('\"vorarlberg".\"' + tablename + '\"')
# Sonderzeichen berücksichtigen!
tablename = tablename.replace(('ä'),'ae')
tablename = tablename.replace(('Ä'),'Ae')
tablename = tablename.replace(('ö'),'oe')
tablename = tablename.replace(('Ö'),'Oe')
tablename = tablename.replace(('ü'),'ue')
tablename = tablename.replace(('Ü'),'Ue')
tablename = tablename.replace(('ß'),'ss')
tablename = tablename.replace('. ','_')
################################################
# Geometriespalte bestimmen -- geht nur mit OGR
param_list = str.split(vogisDb_global[0])
host = ''
dbname=''
port=''
for param in param_list:
if str.find(param,'dbname') >= 0:
dbname = str.replace(param,'dbname=','')
elif str.find(param,'host=') >= 0:
host = str.replace(param,'host=','')
elif str.find(param,'port=') >= 0:
port = str.replace(param,'port=','')
try:
if auth_user == None:
outputdb = ogr.Open('pg: host=' + host + ' dbname=' + dbname + ' schemas=vorarlberg' + ' port=' + port)
else:
outputdb = ogr.Open('pg: host=' + host + ' dbname=' + dbname + ' schemas=vorarlberg' + ' port=' + port + ' user='******'the_geom'
##################################################
# Geometriespalte Ende
if self.maps.item(i).namedItem("datasource").firstChild().nodeValue().find('ogc_fid') > 0:
# Achtung, das Attribut user darf nicht zwingend immer nur klein sein -> Siehe Usermapping in der Doku
if auth_user == None:
dbpath = str.lower(vogisDb_global[0] + ' sslmode=disable table=' + tablename + ' (' + geom_column + ') sql') + sql
else:
dbpath = str.lower(vogisDb_global[0]) + ' user='******' sslmode=disable table=' + tablename + ' (' + geom_column + ') sql') + sql
else:
# Achtung, das Attribut user darf nicht zwingend immer nur klein sein -> Siehe Usermapping in der Doku
if auth_user == None:
dbpath = str.lower(vogisDb_global[0] + ' sslmode=disable key=ogc_fid table=' + tablename + ' (' + geom_column + ') sql') + sql
else:
dbpath = str.lower(vogisDb_global[0]) + ' user='******' sslmode=disable key=ogc_fid table=' + tablename + ' (' + geom_column + ') sql') + sql
nv_ds = self.maps.item(i).namedItem("datasource").firstChild().nodeValue()
nv_provider = self.maps.item(i).namedItem("provider").firstChild().nodeValue()
nv_encoding = self.maps.item(i).namedItem("provider").attributes().namedItem('encoding').nodeValue()
self.maps.item(i).namedItem("datasource").firstChild().setNodeValue(dbpath)
self.maps.item(i).namedItem("provider").firstChild().setNodeValue('postgres')
self.maps.item(i).namedItem("provider").attributes().namedItem('encoding').setNodeValue('UTF-8')
if os.path.abspath(os.path.dirname(__file__)) != path_global[0]:
return
# Layer einlesen!
proj_read = QgsProject.instance().readLayer(self.maps.item(i))
# Der Fortschrittsbalken
progressi.setValue(j)
progressi.forceShow()
if progressi.wasCanceled():
break
#QtGui.QMessageBox.about(None, "Achtung", str(proj_read))
if not proj_read and vogisDb_global[0] == 'filesystem geodaten': # hier wird der Layer geladen und gemäß den Eintragungen
# der DomNode auch gerendert und dargestellt
QtWidgets.QMessageBox.about(None, "Achtung", "Layer " + self.legends.item(j).attributes().namedItem("name").nodeValue() + " nicht gefunden!")
continue
elif not proj_read and vogisDb_global[0] != 'filesystem geodaten': # Probieren auf Filesystem umzuschalten
QtWidgets.QMessageBox.about(None, "Achtung", "Layer - " + self.legends.item(j).attributes().namedItem("name").nodeValue() + " - in der Datenbank nicht gefunden - es wird aufs Filesystem umgeschaltet")
self.maps.item(i).namedItem("datasource").firstChild().setNodeValue(nv_ds)
self.maps.item(i).namedItem("provider").firstChild().setNodeValue(nv_provider)
self.maps.item(i).namedItem("provider").attributes().namedItem(nv_encoding)
if not QgsProject.instance().readLayer(self.maps.item(i)): #Trotzdem nicht gefunden, wir geben auf
QtWidgets.QMessageBox.about(None, "Achtung", "Layer " + self.legends.item(j).attributes().namedItem("name").nodeValue() + " nicht gefunden!")
continue
# den Anzeigenamen im Qgis ebenfalls ändern
# dazu zuerst den richtigen Layer anhand der Layerid auswählen
# leginterface = self.iface.legendInterface()
#for lyr_tmp in leginterface.layers():
for lyr_tmp in QgsProject.instance().mapLayers(): #alle bereits geladenen Layer durchgehen -> Dictionary
if lyr_tmp == noddi.firstChild().nodeValue():
self.lyr = QgsProject.instance().mapLayers()[lyr_tmp]
if force_scale != None:
self.lyr.setMaximumScale(25000)
self.lyr.setScaleBasedVisibility(True)
#Abhängig von der vogisini wird das KBS
#aus der Projektdatei genommen oder aus dem *.prj File
if vogisKBS_global[0] == 'menue':
#Koordinatenbezugssystem aus dem prj file holen, wenn vorhanden,
#und von dort zuweisen (die Projekteinstellung überschreiben)
try:
datei = open(os.path.splitext(self.lyr.source())[0] + '.prj','r')
bezugssystem_string = datei.read()
#falls kein sauberer EPSG String, machen wir eine Zuweisung für unser 31254
if (re.search('MGI\D+Austria\D+GK\D+West',bezugssystem_string, re.I)) != None: #Arcgis macht keinen sauberen EPSG String
bezugssystem_crs = QgsCoordinateReferenceSystem()
bezugssystem_crs.createFromSrid(31254)
else:
bezugssystem_crs = QgsCoordinateReferenceSystem(bezugssystem_string)
datei.close()
self.lyr.setCrs(bezugssystem_crs)
except IOError:
pass
#dann in der Applikation registrieren
#QgsMapLayerRegistry.instance().addMapLayer(self.lyr)
# gejointe Tabellen brauchen eine Spezialbehandlung: Joininfo wird
# ausgelesen, dann der join gelöscht und erst wenn alles geladen wurde
# wieder neu erstellt. Sonst kann es Probleme geben! unterstütz
# werden beleibig viele layer mit beliebig vielen joins
# es handelt sich um einen layer mir midestens einem eingetragenen join
single_lyr_join = lyr_join() # eigenes struktur objekt instanzieren
if not self.joinlayerid == '': # checken ob für den layer mindestens ein join eingetragen ist
single_lyr_join.joinlayer = self.lyr
single_lyr_join.joininfo = self.lyr.vectorJoins()
self.joinliste.append(single_lyr_join) # eine liste mit joinlayern und deren joininfo führen
for rem_join in self.lyr.vectorJoins(): # für den joinlayer die joins entfernen - es können merhere sein
kasperle = rem_join.joinLayerId
self.lyr.removeJoin(str(rem_join.joinLayerId))
#Und nun noch den Layernamen für die Darstellung
#im Qgis ergänzen. Siehe oben, bei gemeindeweisem Laden
if (ergaenzungsname != None) and (self.lyr != None) and self.anzeigename_aendern: # noch ein boolean wegen der wasserwirtschaft!!
if not (self.lyr.name().find(ergaenzungsname) > -1): # ACHTUNG: Sonst wird bei wiederholtem klicken der Name nochmal rangehängt
if self.lyr.name().find("(a)") > -1:
aktname = str.strip((self.lyr.name().rstrip("(a)"))) + "-" + ergaenzungsname + " (a)"
self.lyr.setName(aktname)
else:
aktname = str.strip(self.lyr.name())+ "-" + ergaenzungsname
self.lyr.setName(aktname)
# abschließend schauen ob der aktiviert ist
if (self.legends.item(j).attributes().namedItem("checked").nodeValue() == "Qt::Unchecked") and not (self.lyr is None):
#leginterface.setLayerVisible(self.lyr,False)
lyr_tree = QgsProject.instance().layerTreeRoot().findLayer(self.lyr)
lyr_tree.setItemVisibilityChecked(False)
index = QgsProject.instance().layerTreeRoot()
zwetsch =QgsProject.instance().layerTreeRoot().findLayer(self.lyr.id())
dummy = zwetsch.clone()
# Die Layer die später geladen werden müssen
# auch weiter unte in der Legende sein Reihenfolge)
# das wird mit der Variable zaehler gesteuert
# QGIS höher 2.6
index_ins = index_zuweisen(self.legends.item(j).attributes().namedItem("name").nodeValue(),self.legends.item(j).parentNode())
index.insertChildNode(-1,dummy)
zaehler = zaehler + 1
zwetsch.parent().removeChildNode(zwetsch)
# sonst gibts probleme in der Reihenfolge
# wenn gruppen und layer im top level vermischt
if not (self.legends.item(j).parentNode().nodeName() == "legendgroup") and (force_gruppenname is None):
zwetsch =QgsProject.instance().layerTreeRoot().findLayer(self.lyr.id())
dummy = zwetsch.clone()
index.insertChildNode(index_ins,dummy)
zwetsch.parent().removeChildNode(zwetsch)
#abschließend schauen ob der Layer aufgeklappt ist
#und das flag setzen
if (self.legends.item(j).attributes().namedItem("open").nodeValue() == "false") and not (self.lyr is None):
dummy.setExpanded(False)
elif (self.legends.item(j).attributes().namedItem("open").nodeValue() == "true") and not (self.lyr is None):
dummy.setExpanded(True)
# hier könnte abgebrochen werden, wenn die layer einfach
# nur reingeladen werden OHNE in Gruppenlyer abgelegt zu werden
# continue
#######################################################
# hier beginnt der Programmteil der die Gruppenlayer
# behandelt - entweder wenn im Projektfile definiert
# oder einfach wenn es im Menü
# erwünscht wird
#######################################################
if (self.legends.item(j).parentNode().nodeName() == "legendgroup") or not (force_gruppenname is None):
self.gruppe_vorhanden = False
#ACHTUNG: Layername und direkt übergeordneter Gruppenname
#müssen sich unterscheiden, sonst kommts zu einem Fehler. Sollts
#dennoch mal vorkommen, wird es hier abgefangen
if self.legends.item(j).parentNode().attributes().namedItem("name").nodeValue() == self.legends.item(j).attributes().namedItem("name").nodeValue():
aktname = self.lyr.name()
self.lyr.setName(aktname+"_")
#prüfen ob die Gruppe schon angelegt ist
grp_name = self.legends.item(j).parentNode().attributes().namedItem("name").nodeValue() #Name der Gruppe aus dem QGS Projektfile
grp_obj = QgsProject.instance().layerTreeRoot().findGroup(grp_name)
if (isinstance(grp_obj,QgsLayerTreeGroup)) and (not (grp_obj is None)):
self.gruppe_vorhanden = True
grp_name = force_gruppenname #Name ist übergeben worden
grp_obj = QgsProject.instance().layerTreeRoot().findGroup(grp_name)
if (isinstance(grp_obj,QgsLayerTreeGroup)) and (not (grp_obj is None)):
self.gruppe_vorhanden = True
#########################################################
# Gruppenlayer aus Projektdatei
#########################################################
if self.legends.item(j).parentNode().attributes().namedItem("name").nodeValue() != "" and self.legends.item(j).parentNode().nodeName() == "legendgroup":
QgsLayerTreeRegistryBridge(QgsProject.instance().layerTreeRoot(),QgsProject.instance())
kind = self.legends.item(j).parentNode()
gruppen_hierarchie = pos_gruppe()
gruppen_liste = []
while (kind.nodeName() == "legendgroup"):
gruppen_hierarchie.name = kind.attributes().namedItem("name").nodeValue() # der name der dem layer unmittelbar übergeordnete Gruppe: Ebene
gruppen_hierarchie.index = index_zuweisen(kind.attributes().namedItem("name").nodeValue(),kind.parentNode()) # Index der Darstellungsreihenfolge der Gruppe in ihrer Hierarchie
gruppen_hierarchie.ex = kind.attributes().namedItem("open").nodeValue()
gruppen_hierarchie.ch = kind.attributes().namedItem("checked").nodeValue()
gruppen_liste.append(copy.deepcopy(gruppen_hierarchie)) # ACHTUNG: Referenz!!
kind = kind.parentNode()
# grp enthält das qtreewidgetitem Objekt der Gruppe!, in die der geladene
# Layer verschoben werden soll!
grp = sublayer(QgsProject.instance().layerTreeRoot(),gruppen_liste, self.gruppen_erg_name, nach_unten, anzeigename_ergaenzen)[0] #sollten es mehrere sein, immer nur die erste nehmen - siehe Erklärung beim Sub selbst
zwtsch = QgsProject.instance().layerTreeRoot().findLayer(self.lyr.id())
dummy = zwtsch.clone()
if not (isinstance(grp,QgsLayerTreeGroup)) or grp is None:
QtWidgets.QMessageBox.about(None, "ACHTUNG","Anlegen der Gruppe gescheitert")
break
index_layer = index_zuweisen(self.legends.item(j).attributes().namedItem("name").nodeValue(),self.legends.item(j).parentNode())
# QtGui.QMessageBox.about(None, "LayeriD", str(dummy.layerId()))
grp.insertChildNode(index_layer,dummy)
zwtsch.parent().removeChildNode(zwtsch) # zwilling entfernen!
##########################################################
# hier Endet der Teil der Gruppenlayer aus Projektdatei!!
#########################################################
letzterplatz = False #Flagvariable ermittelt ob die Gruppe ganz nach unten gehört
#die gruppe in die der layer eingebettet ist kommt nicht aus
#einem projekt, sondern wird erzwungen. hier gibts allerdings
#nur eine ebene (was das ganze einfacher macht)
if (not force_gruppenname is None):
# gruppe anlegen
gruppen_hierarchie = pos_gruppe()
gruppen_hierarchie.name = force_gruppenname
# grp = sublayer(QgsProject.instance().layerTreeRoot(),leginterface,[gruppen_hierarchie])[0]
grp = sublayer(QgsProject.instance().layerTreeRoot(),[gruppen_hierarchie])[0]
zwtsch = QgsProject.instance().layerTreeRoot().findLayer(self.lyr.id()) #der geladene layer
dummy = zwtsch.clone()
# wiviele layer sind in der gruppe bereits vorhanden?
# baum = QgsLayerTreeModel(grp)
# anzahl_top_level_eintraege = baum.rowCount()
baum = grp.findLayers()
anzahl_top_level_eintraege = len(baum)
baum = None # Sonst Absturz bei grp.parent().removeChildNode(grp) da baum auf ein Nichts refenrenziert!
# den neuen ganz hinten einsetzen
grp.insertChildNode(anzahl_top_level_eintraege,dummy)
zwtsch.parent().removeChildNode(zwtsch)
grp.setExpanded(False)
if nach_unten: # ganz nach unten mit der gefüllten Gruppe, wenn das Flag gesetzt ist
if not self.gruppe_vorhanden:
dummy = grp.clone()
QgsProject.instance().layerTreeRoot().insertChildNode(-1,dummy)
grp.parent().removeChildNode(grp)
else: # die Layer werden NICHT in einen self.gruppenlayer geladen
# sollen aber nach unten verschoben werden
if nach_unten:
# wiviele layer sind in der gruppe bereits vorhanden?
baum = QgsLayerTreeModel(QgsProject.instance().layerTreeRoot())
anzahl_top_level_eintraege = baum.rowCount()
baum = None # Sonst Absturz bei grp.parent().removeChildNode(grp) da baum auf ein Nichts refenrenziert!
zwtsch = QgsProject.instance().layerTreeRoot().findLayer(self.lyr.id()) #der geladene layer
dummy = zwtsch.clone()
# den neuen ganz hinten einsetzen
QgsProject.instance().layerTreeRoot().insertChildNode(anzahl_top_level_eintraege,dummy)
zwtsch.parent().removeChildNode(zwtsch)
# abschließend schauen ob der Layer aufgeklappt ist
# und das flag setzen - beim Verschieben in die Gruppenlayer
# verändert sich das nämlich manchmal...
if (self.legends.item(j).attributes().namedItem("open").nodeValue() == "false") and not (self.lyr is None):
dummy.setExpanded(False)
elif (self.legends.item(j).attributes().namedItem("open").nodeValue() == "true") and not (self.lyr is None):
dummy.setExpanded(True)
# der nachfolgende Code erzwingt eine Aktualisierung
# der Legende und des MapWindow
# Ansonsten kanns im Mapwindow Darstellungsprobleme geben! Wieso??
if not self.lyr is None:
anzeigename = self.lyr.name()
self.lyr.setName(anzeigename+" ")
self.lyr.setName(anzeigename)
else:
QtWidgets.QMessageBox.about(None, "Achtung", "Layer " + self.legends.item(j).attributes().namedItem("name").nodeValue() + " nicht gefunden!")
# unbedingt ALLES DEselektieren, sonst Probleme mit Reihenfolge
self.iface.layerTreeView().setCurrentLayer(None) # None entspricht einem Null Pointer -> Auswahl wird entfernt -> nicht ausgewählt
#Unbedingt zurücksetzen sonst kanns beim wiederholten
#laden des gleichen Projektfiles einen Fehler geben:
#wenn nämlich die Schleife erneut beginnt, nicht lädt und self.lyr
#beim vorherigen laden steht!
self.lyr = None
# und weiter in der Schleife!
# UNBEDINGT am Schluss QGis wieder auf den usprünglichen
# Pfad zurücksetzen
QgsProject.instance().setFileName(CurrentPath)
#ACHTUNG: Aus irgendeinem Grund gibts Probleme mit den Gruppenlayer: Wenn innerhalb der so angelegten Gruppen
# ein Layer ausgewählt wird, gibts beim Laden danach einen Fehler. Es MUSS deshalb der oberste Eintrag
# der Legende vor allem Laden als Aktueller Layer gesetzt werden!!!
#Objekte besser löschen
self.legends = None
self.legendTree = None
self.maps = None
self.legends = None
self.gruppen = None
######################################################################
# Abschlussprüfung: sind alle da
#prüfen ob alle Layer der Liste geladen wurden
#das ist notwendig, da ja beim Projektladen alles passen kann aber
#ein Layer nicht vorhanden ist
######################################################################
fehler = 0
layerzaehler = 0
# Weg mit dem Fortschrittsbalken
# self.info.close()
if liste != None: #wenn nur ein Teil der Layer eines Projekts geladen wurde. Die Liste enthält die
#Namen dieser Layer
for nd in range(len(liste)):
for lyr_tmp_id in QgsProject.instance().mapLayers(): #alle bereits geladenen Layer durchgehen -> Dictionary
lyr_tmp = QgsProject.instance().mapLayer(lyr_tmp_id)
# Unbedingt die optionale Änderung des
# Anzeigenamens (z.B. DKM) mitberücksichtigen!)
if (ergaenzungsname != None) and self.anzeigename_aendern:
if liste[nd] + "-" + ergaenzungsname == lyr_tmp.name():
layerzaehler = layerzaehler +1
elif liste[nd].rstrip(" (a)") + "-" + ergaenzungsname + ' (a)' == lyr_tmp.name():
layerzaehler = layerzaehler +1
else:
if liste[nd] == lyr_tmp.name():
layerzaehler = layerzaehler +1
# ACHTUNG: Wurden nicht alle in der Liste (fürs importieren übergebne Layerliste mit Layernamen) angeführten Layer
# anhand des Layernamensim Projekt gefunden gibts
# hier noch eine Fehlermeldung
if not liste is None:
if len(liste) > layerzaehler: #Ints! Dann wurde was nicht geladen
QtWidgets.QMessageBox.about(None, "Achtung", "Nicht alle Layer aus " + pfad + " konnte(n) geladen werden!!")
# gejointe Relationen wiederherstellen
# aber erst ganz am Schluss!!
for singlejoin in self.joinliste:
for singlejoininfo in singlejoin.joininfo:
singlejoin.joinlayer.addJoin(singlejoininfo)
def eqframe(prefix, xmax=40.):
rfile = prefix + '_eq_r.dat'
phifile = prefix + '_eq_phi.dat'
rhofile = prefix + '_eq_rho.dat'
pfile = prefix + '_eq_p.dat'
pmfile = prefix + '_eq_pm.dat'
uufile = prefix + '_eq_uu.dat'
udfile = prefix + '_eq_ud.dat'
nr, nh, nphi, a, t = dinforead(prefix)
# radial mesh:
fr = open(rfile, 'r')
s = str.split(str.strip(fr.readline()))
r = []
while (s):
r.append(s[0])
s = str.split(str.strip(fr.readline()))
fr.close()
r = asarray(r, dtype=double)
nr = size(r)
# azimuthal angle mesh:
fh = open(phifile, 'r')
s = str.split(str.strip(fh.readline()))
phi = []
while (s):
phi.append(s[0])
s = str.split(str.strip(fh.readline()))
fh.close()
phi = asarray(phi, dtype=double)
# nh=size(phi)
# 2d-grid (order??)
h2, r2 = meshgrid(phi, r)
print(shape(r2))
print(nr, nphi)
# density:
frho = open(rhofile, 'r')
s = str.split(str.strip(frho.readline()))
rho = []
while (s):
rho.append(s[0])
s = str.split(str.strip(frho.readline()))
frho.close()
rho = asarray(rho, dtype=double)
# print shape(rho)
rho = reshape(rho, [nr, nphi])
# pressure(s):
fp = open(pfile, 'r')
fpm = open(pmfile, 'r')
s = str.split(str.strip(fp.readline()))
sm = str.split(str.strip(fpm.readline()))
p = []
pm = []
while (s):
p.append(s[0])
pm.append(sm[0])
s = str.split(str.strip(fp.readline()))
sm = str.split(str.strip(fpm.readline()))
fp.close()
fpm.close()
p = asarray(p, dtype=double)
pm = asarray(pm, dtype=double)
# print shape(rho)
p = reshape(p, [nr, nphi])
pm = reshape(pm, [nr, nphi])
# velocity field:
fuu = open(uufile, 'r')
s = str.split(str.strip(fuu.readline()))
ur = []
omega = []
while (s):
ur.append(s[1])
omega.append(old_div(double(s[3]), double(s[0])))
s = str.split(str.strip(fuu.readline()))
fuu.close()
ur = asarray(ur, dtype=double)
ur = reshape(ur, [nr, nphi])
omega = asarray(omega, dtype=double)
omega = reshape(omega, [nr, nphi])
rhor = 1. + sqrt(1. - a**2)
# density variations:
rhomean = rho.mean(axis=1)
drho = zeros([nr, nphi], dtype=double)
for k in arange(nr):
drho[k, :] = old_div(rho[k, :], rhomean[k]) - 1.
drholevs = levels = (old_div(arange(40), double(20.)) - 0.5) * 5.
clf()
fig = figure()
contourf(r2 * sin(phi), r2 * cos(phi), drho, levels=drholevs)
xlim(-xmax, xmax)
ylim(-xmax, xmax)
bhole(rhor)
title('deviations from mean density profile, t=' + str(t))
# axis('equal')
savefig(prefix + '_eq_rho.eps')
savefig(prefix + '_eq_rho.png')
close()
clf()
contourf(r2 * sin(phi), r2 * cos(phi), ur * rho, nlevels=30)
colorbar()
xlim(-xmax, xmax)
ylim(-xmax, xmax)
bhole(rhor)
title(r'$\rho u^r$, t=' + str(t))
# axis('equal')
savefig(prefix + '_eq_ur.eps')
savefig(prefix + '_eq_ur.png')
close()
# beta (magnetization) plot
beta1 = 0.1
beta2 = 1000.
nbeta = 20
betalevs = log10(
(old_div(beta2, beta1))**(old_div(arange(nbeta), double(nbeta - 1))) *
beta1)
clf()
contourf(r2 * sin(phi),
r2 * cos(phi),
log10(old_div(p, pm)),
levels=betalevs)
colorbar()
contour(r2 * sin(phi),
r2 * cos(phi),
drho,
colors='k',
levels=drholevs,
lineswidth=1)
xlim(-xmax, xmax)
ylim(-xmax, xmax)
bhole(rhor)
title(r'$\lg\beta$, t=' + str(t))
# axis('equal')
savefig(prefix + '_eq_beta.eps')
savefig(prefix + '_eq_beta.png')
