def idFromTable(infc, outfc, inField, outIdField, outPrefixField):
tab.copy(infc, outfc)
tables = rd.tables()
arcpy.management.AddField(tables[outfc], outIdField, 'TEXT')
arcpy.management.AddField(tables[outfc], outPrefixField, 'TEXT')
with arcpy.da.UpdateCursor(tables[outfc], (inField, outIdField, outPrefixField)) as cursor:
for row in cursor:
inSplit = row[0].split('[')[1].split(']')[-2]
fid = None
prefix = None
if 'CD' in inSplit:
fid = inSplit.split('CD')[1]
fid = fid[0:2] + fid[4:]
fid = fid[0:4]
prefix = 'CD'
elif 'CCS' in inSplit:
fid = inSplit.split('CCS')[1]
fid = fid[0:2] + fid[4:]
prefix = 'CCS'
elif 'CAR' in inSplit:
fid = inSplit.split('CAR')[1]
prefix = 'CAR'
elif 'PR' in inSplit:
fid = inSplit.split('PR')[1]
prefix = 'PR'
else:
fid = inSplit
prefix = 'CO'
# print fid
row[1] = fid
row[2] = prefix
cursor.updateRow(row)
def extractId(infc, outfc, extractFields):
tab.copy(infc, outfc)
with arcpy.da.SearchCursor(outfc, ['geo']) as cursor:
for row in sorted(cursor):
fid = row[0].split('[')[1].split(']')[0]
splitId = fid.split('CD')
if len(splitId) > 1:
print splitId[1]
def createSubDomainTables(self, run, projections, tables):
"""If there are SubDomains represented by the projections in the
run but not in any tables in that run, this function will create
a table containing just the IDs for each SubDomain. This is
calculated by performing all possible projections into that
unrepresented Subdomain and taking the union of the results.
"""
# Determine which subdomains are not covered by tables
uncovered_subdomains = set(run._projection_subdomains) \
- set(run._table_subdomains)
for subdomain in uncovered_subdomains:
# Find projections that cover this subdomain
projection_list = list()
for projection in projections._children:
if (subdomain == projection._projection.source
or subdomain == projection._projection.destination):
projection_list.append(projection._projection)
# Create a Table Meta Information
greater_subdomain = SubDomain.instantiate(subdomain)
table_meta = dict()
table_meta['filetype'] = 'table'
table_meta['domain'] = greater_subdomain.domain()
table_meta['type'] = greater_subdomain.typename()
table_meta['flags'] = 0
table_meta['field'] = table_meta['type'] + "_id"
# Find a list of IDs for this subdomain from those projections
id_list = list()
for projection in projection_list:
if subdomain == projection.source:
ids = projection.source_ids()
if isinstance(projection, TableProjection):
# If there's a TableProjection, use that field name
# instead
table_meta['field'] = projection._source_key
else: # destination
ids = projection.destination_ids()
if isinstance(projection, TableProjection):
table_meta['field'] = projection._destination_key
if ids is not None:
id_list.extend(ids)
id_list = list(set(id_list))
# Create Table
data = np.rec.fromrecords([(x,) for x in id_list])
data.dtype.names = (table_meta['field'],)
atable = Table()
atable.fromRecArray(greater_subdomain, table_meta['field'], data)
# Insert Table
self.insertTable(subdomain, atable, table_meta, \
parent = self.createIndex(tables.childCount(), 0, tables))
# Update subdomain list
run._table_subdomains.append(subdomain)
def __init__(self): self.table = Table(1212, 634) self.whiteBall = BilliardBall(0, 18, Point2D(0,0)) self.yellowBall = BilliardBall(1, 1, Point2D(0,0)) self.blueBall = BilliardBall(2, 18, Point2D(0,0)) self.redBall = BilliardBall(3, 1, Point2D(0,0)) self.purpleBall = BilliardBall(4, 1, Point2D(0,0)) self.orangeBall = BilliardBall(5, 18, Point2D(0,0)) self.greenBall = BilliardBall(6, 18, Point2D(0,0)) self.brownBall = BilliardBall(7, 18, Point2D(0,0)) self.blackBall = BilliardBall(8, 18, Point2D(0,0)) self.strYellowBall = BilliardBall(9, 18, Point2D(0,0)) self.strBlueBall = BilliardBall(10, 1, Point2D(0,0)) self.strRedBall = BilliardBall(11, 1, Point2D(0,0)) self.strPurpleBall = BilliardBall(12, 1, Point2D(0,0)) self.strOrangeBall = BilliardBall(13, 1, Point2D(0,0)) self.strGreenBall = BilliardBall(14, 1, Point2D(0,0)) self.strBrownBall = BilliardBall(15, 1, Point2D(0,0)) self.balls = [ self.whiteBall, self.yellowBall, \ self.blueBall, self.redBall, \ self.purpleBall, self.orangeBall, \ self.greenBall, self.brownBall, \ self.blackBall, self.strYellowBall, \ self.strBlueBall, self.strRedBall, \ self.strPurpleBall, self.strOrangeBall, \ self.strGreenBall, self.strBrownBall]
def DrawTopRecPlots(self, Data):
dataType = type( Data )
data = dataType. __getattribute__(Data , self.Channel)
self.t_TopRecPropertiesLinks = Table(False)
TheRow = RowObject()
PropertiesLinks = {}
for Property in self.AllTopRecStacks.keys():
stack_prop = self.AllTopRecStacks[Property]
hPropd = data.AllTopRecPlots[Property]
ImgFileName = 'bbb'+ Property
ImgFileName = ImgFileName.replace("_", 'z')
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName ,0)
TheRow[Property] = '@<a id="%(id)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'id':(Property).replace('_', 'x') , 'PropName':Property}
stack_prop = self.stack_NPrVtxAll
hPropd = data.NPrVtxAll
ImgFileName = 'bbbNPrVtxAll'
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
TheRow['NPrVtxAll'] = '@<a id="%(PropName)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'PropName':Property}
stack_prop = self.stack_NPrVtxAllNoW
hPropd = data.NPrVtxAllNoW
ImgFileName = 'bbbNPrVtxAllNoW'
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
TheRow['NPrVtxAllNoW'] = '@<a id="%(PropName)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'PropName':Property}
self.t_TopRecPropertiesLinks.append( TheRow )
return self.t_TopRecPropertiesLinks
def DrawAllProperties(self , Data):
dataType = type( Data )
data = dataType. __getattribute__(Data , self.Channel)
self.t_PropertiesLinks = Table(False)
PropertiesLinks = {}
for Property in self.PropertiesToDraw.keys():
PropertiesLinks[Property] = RowObject()
PropertiesLinks[Property]['0-Property'] = Property
for CutID in sorted(self.AllSortedDirectories.keys()):
Cut = self.AllSortedDirectories[CutID]
stack_prop = self.PropertiesToDraw[Property][Cut]
hPropd = data.PropertiesToDraw[Property][Cut]
if Cut == '':
stack_prop.SetTitle( '%(Channel)s : after pair choose' % {'Channel':self.Channel } )
else:
stack_prop.SetTitle( '%(Channel)s : after cut on %(Cut)s' % {'Channel':self.Channel, 'Cut':Cut } )
ImgFileName = 'aaa'+ str(CutID)+ "_" +Cut+ "_" + Property
ImgFileName = ImgFileName.replace("_", 'z')
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
PropertiesLinks[Property]['%(ID)d-%(Name)s'%{'ID':CutID+1 , 'Name':Cut}] = '@<a id="%(id)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(Diff)d@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'id':(Cut+'_'+Property).replace('_', 'x') , 'Diff':TotalDiff}
CutID = CutID+1
self.t_PropertiesLinks.append( PropertiesLinks[Property] )
return self.t_PropertiesLinks
def new_table(self, aggregate_func = lambda a,b: None, empty_total = None, cmp_func = cmp):
new_policy = {
'serialize' : self.policy['serialize'],
'deserialize' : self.policy['deserialize'],
'cmp' : cmp_func,
'aggregate' : aggregate_func
}
return Table._Table(abtree_c.DiskTree(self.store, new_policy), cmp_func, empty_total, None, None)
def parse_ANA_output(prosa_output):
if not os.path.exists(prosa_output):
raise 'prosa output %s is missing.' % prosa_output
t = Table.fromFile(prosa_output)
return N.array(t[2:]).astype(N.Float32)
def from_node(self, node):
self.parent = node.prop('inherits')
for hook in node.xpathEval('hooks/hook'):
name = hook.prop('name')
assert name
self.hooks.append(name)
for table in node.xpathEval('table'):
name = table.prop('name')
self.tables[name] = Table.new(self, name, table)
def generate_tex_table(caption='My Table', header=[], columns=[], label = 'tab:mytable',sigfigs=2):
import StringIO
out_str_io = StringIO.StringIO()
t = Table(len(header), caption=caption, label=label)
t.add_header_row(header)
t.add_data(columns, sigfigs=sigfigs)
t.print_table(out_str_io)
return out_str_io.getvalue()
def load(self,
name,
aggregate_func = lambda a,b: None,
empty_total = None,
cmp_func = cmp):
new_policy = {
'serialize' : self.policy['serialize'],
'deserialize' : self.policy['deserialize'],
'cmp' : cmp_func,
'aggregate' : aggregate_func
}
return Table._Table(self.store.load(name, new_policy), cmp_func, empty_total, None, None)
def attach(self,
name,
aggregate_func = lambda a,b: None,
empty_total = None,
cmp_func = cmp):
new_policy = {
'serialize' : self.policy['serialize'],
'deserialize' : self.policy['deserialize'],
'cmp' : cmp_func,
'aggregate' : aggregate_func
}
with self.lock:
t = Table._Table(self.store.attach(name, new_policy), self, cmp_func, empty_total, None, None)
self.tables[name] = t
return t
class FrameManager():
def __init__(self, frames, hdd):
self._frames = frames
self._free_frames = frames
self._table = Table()
self._hdd = hdd
def update_free_frames(self):
self._free_frames = filter(lambda frame: not frame.is_in_use(), self._frames)
def assign_page_to_frame(self, pcb):
print("Attempting to Assign Page for PCB ID: " + str(pcb._id))
pcb_pages = pcb.get_info_holder().get_hold()
page = next(iter(filter(lambda p: not p.has_been_used(), pcb_pages)))
pages = self._hdd.find_page(page.get_index())
if pages:
page = pages[0]
policy_result = self.assign(page)
self.update_free_frames()
return policy_result
def free_frame_available(self):
return len(self._free_frames) > 0
def empty_youngest_frame(self):
youngest = min(self._frames, key=lambda x: x.get_life())
self._hdd.add_to_swap(youngest)
youngest.set_not_in_use()
def assign(self, page):
if self.free_frame_available():
policy_result = self._table.put_page(page, self._frames, self._free_frames)
print("Page successfuly assigned!")
return policy_result
else:
self.empty_youngest_frame()
self.update_free_frames()
print("A frame became empty!")
self.assign(page)
def get_frames(self):
return self._frames
def WriteANTable(outUV, meta, err):
"""
Write data in meta to AN table
* outUV = Obit UV object
* meta = dict with data meta data
* err = Python Obit Error/message stack to init
"""
################################################################
antab = outUV.NewTable(Table.READWRITE, "AIPS AN", 1, err)
if err.isErr:
OErr.printErrMsg(err, "Error with AN table")
antab.Open(Table.READWRITE, err)
if err.isErr:
OErr.printErrMsg(err, "Error opening AN table")
# Update header
antab.keys['RefDate'] = meta["obsdate"]
antab.keys['Freq'] = meta["spw"][0][1]
JD = UVDesc.PDate2JD(meta["obsdate"])
antab.keys['GSTiat0'] = UVDesc.GST0(JD) * 15.0
antab.keys['DEGPDY'] = UVDesc.ERate(JD) * 360.0
Table.PDirty(antab)
# Force update
row = antab.ReadRow(1, err)
if err.isErr:
OErr.printErrMsg(err, "Error reading AN table")
OErr.printErr(err)
irow = 0
for ant in meta["ants"]:
irow += 1
row['NOSTA'] = [ant[0]]
row['ANNAME'] = [ant[1] + " "]
row['STABXYZ'] = [ant[2], ant[3], ant[4]]
row['DIAMETER'] = [ant[5]]
row['POLAA'] = [90.0]
antab.WriteRow(irow, row, err)
if err.isErr:
OErr.printErrMsg(err, "Error writing AN table")
antab.Close(err)
if err.isErr:
OErr.printErrMsg(err, "Error closing AN table")
def AppendVLTable(infile, outfile=outfile, err=err):
""" Copy VL table ver 1 from infile to outfile
infile = name of input FITS image file with VL table
outfile = name of output FITS image file with extant VL table
err = Python Obit Error/message stack
"""
################################################################
# Get images
inImage = Image.newPFImage("Input image", infile, indisk, 1, err)
outImage = Image.newPFImage("Output image", outfile, outdisk, 1, err)
OErr.printErrMsg(err, "Error creating image objects")
#
# obtain "AIPS VL" tables from each
inTable = Image.PImageNewImageTable(inImage, 1, "AIPS VL", 1, err)
outTable = Image.PImageNewImageTable(outImage, 3, "AIPS VL", 1, err)
OErr.printErrMsg(err, "Error extracting AIPS VL table objects")
# Concatenate
Table.PConcat(inTable, outTable, err)
OErr.printErrMsg(err, "Error concatenatinfg tables")
print "Appended", infile, "to", outfile
def PMFPrint(MFTable, image, err, file="stdout"):
"""
Write human readable version of an MF table to a file
Print contents of MF table
* MFTable = Input Obit MF Table
* image = Image being cataloged
* err = Python Obit Error/message stack
* file = Name of a file or "stdout" for terminal display
"""
################################################################
# Checks
if not Table.PIsA(MFTable):
print("Actually ", MFTable.__class__)
raise TypeError("MFTable MUST be a Python Obit Table")
if not Image.PIsA(image):
print("Actually ", image.__class__)
raise TypeError("image MUST be a Python Obit Image")
#
Obit.TableMFPrint(MFTable.me, image.me, file, err.me)
def PVLPrint(VLTable, image, err, file="stdout"):
"""
Write human readable version of an VL table to a file
Print contents of VL table
* VLTable = Input Obit VL Table, infoList member:
* minSNR = min SNR to select
* image = Image being cataloged
* err = Python Obit Error/message stack
* file = Name of a file or "stdout" for terminal display
"""
################################################################
# Checks
if not Table.PIsA(VLTable):
print "Actually ", VLTable.__class__
raise TypeError, "VLTable MUST be a Python Obit Table"
if not Image.PIsA(image):
print "Actually ", image.__class__
raise TypeError, "image MUST be a Python Obit Image"
#
Obit.TableVLPrint(VLTable.me, image.me, file, err.me)
def readData(self, name):
f = open(name, 'r')
r = f.readline()
while (r != ''):
temp_list = r.split()
if (temp_list[0] == 'CREATE'):
attributes = f.readline().split()
self.__tables.insert(len(self.__tables),
Table.table(attributes, temp_list[1]))
else:
i = 0
for value in temp_list:
if value[0] != "'":
temp_list[i] = int(temp_list[i])
'''
else:
temp_list[i] = value[1:len(value)-1]
'''
i += 1
current_table = self.__tables[len(self.__tables) - 1]
current_table.insert(temp_list)
r = f.readline()
def Insert(self, evt):
L = self.helper.getMaxBookID()
if L != None:
BookID = int(L[0]) + 1
else:
BookID = 10000
Name = self.text1.GetValue()
Author = self.text2.GetValue()
Press = self.text3.GetValue()
Number = self.text4.GetValue()
Date = self.YearList[int(self.List1.GetSelection())]
Type = self.TypeList[int(self.List3.GetSelection())]
if Name == "" or Author == "" or Press == "" or Number == "" or Date == "" or Type == "":
warn = wx.MessageDialog(self,
message="所有信息均不能为空",
caption="错误警告",
style=wx.YES_DEFAULT | wx.ICON_ERROR)
warn.ShowModal()
warn.Destroy()
return
Book = Table.Book(BookID, Name, Author, Press, Date, Type, Number)
self.helper.BookInsert(Book)
def PCCScale(inCCTab, startComp, endComp, scale, err):
"""
Scale flux densities in a CC table
Flux densities of CC entries startComp through endComp are scales by scle
* inCCTab = Input Python TableCC
* startComp = first (1-rel) component
* endComp = highest component [1-rel= 0=> all
* scale = flux density scaling factor
* err = Python Obit Error/message stack
"""
################################################################
# Checks
if not Table.PIsA(inCCTab):
raise TypeError("inCCTab MUST be a Python Obit Table")
if not err.IsA():
raise TypeError("err MUST be an OErr")
#
Obit.ImageUtilCCScale(inCCTab.me, startComp, endComp, scale, err.me)
if err.isErr:
OErr.printErrMsg(err, "Error scaling CC table")
def PFSPrint(FSTable, image, err, file="stdout"):
"""
Write human readable version of an FS table to a file
Print contents of FS table
* FSTable = Input Obit FS Table, List controls:
* minSNR = min SNR to select
* image = Image being cataloged
* err = Python Obit Error/message stack
* file = Name of a file or "stdout" for terminal display
"""
################################################################
# Checks
if not Table.PIsA(FSTable):
print("Actually ", FSTable.__class__)
raise TypeError("FSTable MUST be a Python Obit Table")
if not Image.PIsA(image):
print("Actually ", image.__class__)
raise TypeError("image MUST be a Python Obit Image")
#
Obit.TableFSPrint(FSTable.me, image.me, file, err.me)
def tables():
try:
TABLES_DATA = Table().get_all_db_data()
EMPLOYEES_DATA = Employee().get_all_db_data()
indexes = []
for item in TABLES_DATA:
indexes.append(item[0])
RENDERED_TABLES_DATA = Employee().render(TABLES_DATA)
return render_template("tables.html",
indexes=indexes,
EMPLOYEES_DATA=EMPLOYEES_DATA,
TABLES_DATA=RENDERED_TABLES_DATA,
error=None)
except Exception as e:
return render_template("tables.html",
indexes=[],
TABLES_DATA={},
EMPLOYEES_DATA={},
error="Exception has been caught: " + e.args[0])
def get_tables(self):
"""
Extracts each table on the page and places it in a dictionary.
Converts each dictionary to a Table object. Returns a list of
pointers to the respective Table object(s).
"""
raw_html = self.link.read()
soup = BeautifulSoup(raw_html, "html.parser")
tables = soup.findAll("table")
# have to extract each entry using nested loops
table_list = []
for table in tables:
# empty dictionary each time represents our table
table_dict = {}
rows = table.findAll("tr")
# count will be the key for each list of values
count = 0
for row in rows:
value_list = []
entries = row.findAll("td")
for entry in entries:
# fix the encoding issues with utf-8
entry = entry.text.encode("utf-8", "ignore")
strip_unicode = re.compile(
"([^-_a-zA-Z0-9!@#%&=,/'\";:~`\$\^\*\(\)\+\[\]\.\{\}\|\?\<\>\\]+|[^\s]+)"
)
entry = strip_unicode.sub(" ", entry)
value_list.append(entry)
# we don't want empty data packages
if len(value_list) > 0:
table_dict[count] = value_list
count += 1
table_obj = Table(table_dict)
table_list.append(table_obj)
return table_list
def PGain(inOTF, outOTF, err):
""" Determine gain calibration for an OTF from a residual data set.
Gain Calibration is based on the "Cal" values in the data.
Average value of the noise Cal is computed and entered in the data. (Gain only)
Additive values are determined from the median values of the residual data.
Solution type controlled by calType
Calibration parameters are on the inOTF info member.
"solInt" float scalar Solution interval in days [def 10 sec].
This should not exceed 1000 samples. Solutions will be truncated
at this limit.
"minRMS" float scalar minimum allowable fractional solution RMS [def 0.1].
bad solutions are replaced with pervious good value. [Gain soln]
"calJy" float array Calibrator value in Jy per detector [Gain soln] [def 1.0] .
"minEl" float scalar Minimum elevation allowed (deg)
"calType" string Calibration type desired
"Gain" => Gain (multiplicative, cal) solution only
"Offset" => Offset (additive) solution only
"GainOffset" both gain and offset calibration (probably bad idea).
anything else or absent => Gain only.
returns OTFSoln table with solutions
inOTF = Python Obit OTF (residual) from which the solution is to be determined
outOTF = Python Obit OTF onto which the solution table is to be appended.
err = Python Obit Error/message stack
"""
################################################################
# Checks
if not OTF.PIsA(inOTF):
raise TypeError, "inOTF MUST be a Python Obit OTF"
if not OTF.PIsA(outOTF):
raise TypeError, "outOTF MUST be a Python Obit OTF"
if not OErr.OErrIsA(err):
raise TypeError, "err MUST be a Python ObitErr"
#
out = Table.Table(" ")
if err.isErr: # existing error?
return out
out.me = Obit.OTFGetSolnGain(inOTF.me, outOTF.me, err.me)
return out
def PSNSmo (inSC, err, input=UVSelfSNSmoInput):
""" Smooth SN table possibly replacing blanked soln.
inSC = Selfcal object
err = Python Obit Error/message stack
input = input parameter dictionary
Input dictionary entries:
InData = Input Python UV data
InTable = Input SN table
isuba = Desired subarray, 0=> 1
smoType = Smoothing type MWF, GAUS or BOX, def BOX
smoAmp = Amplitude smoothing time in min
smpPhase = Phase smoothing time in min. (0 => fix failed only')
"""
################################################################
# Get input parameters
InData = input["InData"]
InTable = input["InTable"]
isuba = input["isuba"]
#
# Checks
if not UV.PIsA(InData):
raise TypeError('PCal: Bad input UV data')
if not Table.PIsA(InTable):
raise TypeError('PCal: Bad input table')
# Set control values on UV
dim[0] = 1;
inInfo = UV.PGetList(InData) # Add control to UV data
dim[0] = len(input["smoType"]);
InfoList.PAlwaysPutString (inInfo, "smoType", dim, [input["smoType"]])
dim[0] = 1;
InfoList.PPutFloat (inInfo, "smoAmp", dim, [input["smoAmp"]], err)
InfoList.PPutFloat (inInfo, "smoPhase",dim, [input["smoPhase"]],err)
# Smooth
Obit.UVSolnSNSmo(InTable.me, isuba, err.me)
if err.isErr:
printErrMsg(err, "Error smoothing SN table")
def P(inOTF, outOTF, err):
""" Determine gain offset calibration for an OTF dataset.
The offset is determined from an atmospheric model.
The gain calibration is determined from the average noise cal values
and the atmospheric opacity.
Results are placed in a newly created OTFSoln table.
Calibration parameters are on the inOTF info member.
"solInt" float (1,1,1) Solution interval in days [def 10 sec].
"Tau0" float (1,1,1) Zenith opacity in nepers [def 0].
"aTemp" float (*,1,1) Effective atmospheric temperature in data units.
i.e. the additional offset per airmass due to the atmosphere.
per detector in units of the cal.
"minEl" float (1,1,1) Minimum elevation (deg)
"tRx" float (*,1,1) Receiver temperature per detector in units of the cal
"calJy" float (*,1,1) Noise cal value in Jy, per detector [def 1.0] .
"Azoff" float (*,1,1) Offset in deg to add to (cross El) [def 0] .
"Eloff" float (*,1,1) Offset in deg to add to El [def 0.0] .
returns OTFSoln table with solutions
inOTF = Python Obit OTF from which the solution is to be determined
outOTF = Python Obit OTF onto which the solution table is to be appended.
err = Python Obit Error/message stack
"""
################################################################
# Checks
if not OTF.PIsA(inOTF):
raise TypeError,"inOTF MUST be a Python Obit OTF"
if not OTF.PIsA(outOTF):
raise TypeError,"outOTF MUST be a Python Obit OTF"
if not OErr.OErrIsA(err):
raise TypeError,"err MUST be a Python ObitErr"
#
out = Table.Table(" ")
if err.isErr: # existing error?
return out
out.me = Obit.ObitOTFGetAtmCor (inOTF.me, outOTF.me, err.me)
return out
def PVL2FS(VLTable, image, FSver, err):
"""
Convert contents in an ObitTableVL to entries in an FS table
Converts an VL table produced by FndSou (or AIPS tasks SAD, VSAD)
to a FS table (allows spectra).
* VLTable = Input Obit VL Table, control parameters on List:
minFlux = Minimum acceptable flux density (Jy) [def 0]
* image = Image cube being cataloged
* FSver = FS version
* err = Python Obit Error/message stack
"""
################################################################
# Checks
if not Table.PIsA(VLTable):
print("Actually ", VLTable.__class__)
raise TypeError("VLTable MUST be a Python Obit Table")
if not Image.PIsA(image):
print("Actually ", image.__class__)
raise TypeError("image MUST be a Python Obit Image")
#
Obit.TableVL2FS(VLTable.me, image.me, FSver, err.me)
def PRef (inSC, SNTab, isuba, refant, err):
""" rereference phases of subarray isuba in a SN table to refant
inSC = Selfcal object
SNTab = Python AIPS SN Table
isuba = subarray [def. 1]
refant = reference antenna, if 0 -> pick one
err = Python Obit Error/message stack
Returns actual reference antenna used
"""
################################################################
# Checks
if not PIsA(inSC):
raise TypeError('Bad input selfcalibrator')
if not Table.PIsA(SNTab):
raise TypeError("SNTab MUST be a Python Obit Table")
if not OErr.OErrIsA(err):
raise TypeError("err MUST be an OErr")
#
ret = Obit.UVSolnRefAnt (SNTab.me, isuba, refant, err.me)
if err.isErr:
printErrMsg(err, "Error rereferencing phases")
return ret
def slurp(list, names):
#Vivek
#print list # [[decision + objectives (represented as '?')]] ? means missing values, it is a list of lists
#print names # [<$>decision.names (<<)objectives.names]
t = want = None
#print "Length of the list is : ", len(list)
for rows in list:
if t:
if len(
rows
) == want: #check if it has the same numbers of columns as the first row
t.put(rows)
else:
want, t = len(rows), Table(
names) # it seems Joe has skipped the first row
t.put(rows) # added by Vivek
# print "Number of rows in the table is: ", len(t.rows)
# print "This is how a row looks like: ", t.rows[0]
return t
def hypothesis():
print("Введите уровень значимости критерия - ")
alfa = float(input())
n, a = Initialize(e1, e2)
q_table[0].destroy()
lb = GetLeftEdge(a)
rb = 1
n_of_part = int(e3.get()) + 1
if GetMode() == 1:
x2 = GetArr(lb, rb, n_of_part - 2)
else:
x2 = np.linspace(lb, 1, n_of_part)
ForTable3 = tuple("[" + str(x2[i - 1])[0:5] + "," + str(x2[i])[0:5] + "]"
for i in range(1, n_of_part))
q_arr = [Get_q(a, x2[i - 1], x2[i]) for i in range(1, n_of_part)]
q_table[0] = Tbl.Table(f_inside3, ForTable3, [q_arr], 1)
q_table[0].pack(expand=tk.YES, fill=tk.BOTH)
R_o = GetR(res[0], x2, n_of_part, n, a)
print("F(R0) - ", GetXi_integral(n_of_part, R_o))
if GetXi_integral(n_of_part, R_o) < alfa:
print("Гипотеза отклонена")
else:
print("Гипотеза принята")
def customer_address(rowCount):
t = Table.Table('ecomm_shop', 'customer_address')
t.add(
Column.Column('customer_address_id', cDmy.DT_NUM, '999', '',
cDmy.FMT_4d))
t.add(Column.Column('customer_id', cDmy.DT_NUM, '999', '', cDmy.FMT_4d))
t.add(Column.Column('address_type', cDmy.DT_STR, '', 'R', cDmy.FMT_EMPTY))
t.add(
Column.Column('apartment_building', cDmy.DT_STR, 'Apt-', '',
cDmy.FMT_3d))
t.add(Column.Column('first_line', cDmy.DT_STR, '', ' ', cDmy.FMT_EMPTY))
t.add(Column.Column('second_line', cDmy.DT_STR, '', ' ', cDmy.FMT_EMPTY))
t.add(
Column.Column('street', cDmy.DT_STR, '', '90 feet rd', cDmy.FMT_EMPTY))
t.add(Column.Column('city', cDmy.DT_STR, 'City-', '', cDmy.FMT_3d))
t.add(Column.Column('state', cDmy.DT_STR, '', 'MH', cDmy.FMT_EMPTY))
t.add(Column.Column('country', cDmy.DT_STR, '', 'India', cDmy.FMT_EMPTY))
t.add(Column.Column('zip_code', cDmy.DT_NUM, '400', '', cDmy.FMT_3d))
sql = SqlStatement.SqlStatement(t)
return sql.generateInsert() + sql.generateSelect(rowCount)
def attributes_test(verbose):
relative_file_path = "../../resources/sql/accountSchema.sql"
file_contents = Reader.open_file(relative_file_path)
parser = Reader.SQL_Parser(file_contents)
table_name = parser.parse_table()
table_attributes = parser.parse_attributes()
t = Table.Table(table_name, file_contents, table_attributes)
expected_attribute_dict = {'account_email': 'VARCHAR', 'account_id': 'VARCHAR', 'account_type': 'CHAR'}
count = 0
if len(t.get_attributes()) != len(expected_attribute_dict):
return 0
for key in expected_attribute_dict:
if t.get_attributes()[key] == expected_attribute_dict[key]:
count+= 1
if count == len(expected_attribute_dict):
return 1
return 0
def __init__(self, parent):
wx.Frame.__init__(self, parent, title="批量入库", size=(300, 300))
self.helper = dbhelper.DBHelper()
Dia = wx.FileDialog(parent,
message="Choose a file",
defaultDir="C:\\Users\Sail\Desktop\DBLab5",
style=1)
L = self.helper.getMaxBookID()
if L != None and L[0] != None:
BookID = int(L[0]) + 1
else:
BookID = 10000
if Dia.ShowModal() == wx.ID_OK:
f = open(Dia.GetPath(), 'r')
num = 1
Book = Table.Book(BookID)
for line in f:
line.rstrip('\n')
line = line.split()
Book.setID(BookID)
Book.setName(line[0])
Book.setAuthor(line[1])
Book.setPress(line[2])
Book.setPressDate(line[3])
Book.setType(line[4])
Book.setNumber(line[5])
BookID = BookID + 1
self.helper.BookInsert(Book)
num = num + 1
print(line)
f.close()
result = wx.MessageDialog(self, message="导入成功", caption="导入结果")
result.ShowModal()
result.Destroy()
Dia.Destroy()
self.Destroy()
def edit(self, evt):
global BookID
Name = self.text1.GetValue()
Author = self.text2.GetValue()
Press = self.text3.GetValue()
Number = self.text4.GetValue()
Date = self.YearList[self.List1.GetSelection()]
Type = self.TypeList[self.List3.GetSelection()]
if Name == "" or Author == "" or Press == "" or Number == "" or Date == "" or Type == "":
warn = wx.MessageDialog(self,
message="所有信息均不能为空",
caption="错误警告",
style=wx.YES_DEFAULT | wx.ICON_ERROR)
warn.ShowModal()
warn.Destroy()
return
Book = Table.Book(self.ID, Name, Author, Press, Date, Type, Number)
self.helper.updateBook(Book, self.ID)
warn4 = wx.MessageDialog(self,
message="修改成功",
caption="修改结果",
style=wx.YES_DEFAULT)
warn4.ShowModal()
warn4.Destroy()
def testTable(self):
driver = self.driver
WebSite = os.path.join(os.path.dirname(__file__), os.path.pardir,
os.path.pardir, 'Html', '11.18.html')
driver.get(WebSite)
time.sleep(2)
WebTable = driver.find_element_by_tag_name(
'table') #获取测试页面中的表哥元素,存储在WebTable变量中
table = Table(WebTable) #使用table变量对Table类进行实例化
print("表格中有" + str(table.getRowCount()) + "行")
print("表格中有" + str(table.getColumnCount()) + "列")
Cell = table.getCell(1, 2) #获取表格中第一行第二列的单元格对象
self.assertAlmostEqual('第一行第二列', Cell.text) #验证第一行第二列的单元格的文字是否一致
CellInput = table.getWebElementInCell(3, 3, 'tag name',
'input') #获取第三行第三列中单元格的输入框对象
CellInput.send_keys('这里的确是第三行第三列！') #在该输入框内输入指定内容
time.sleep(3)
def test_Table(self):
"""test Table class"""
self.assertEqual(Table.Table().north.position, Table.position('North').position)
def test_pos2index(self):
"""pos2index"""
self.assertEqual(0, Table.pos2index('North', 'North'))
self.assertEqual(1, Table.pos2index('North', 'East'))
self.assertEqual(2, Table.pos2index('North', 'South'))
self.assertEqual(3, Table.pos2index('North', 'West'))
def __init__(self,parent):
self.formsList = []
self.parent=parent
self.tableManager=Table(self)
self.formsManager=Formulaire(self)
self.users=Users(self)
class Model():
def __init__(self,parent):
self.formsList = []
self.parent=parent
self.tableManager=Table(self)
self.formsManager=Formulaire(self)
self.users=Users(self)
def getUsers(self):
return self.users.getUsers()
def createUser(self,newUser):
self.users.createUser(newUser)
def deleteUser(self, userToDelete):
self.users.deleteUsers(userToDelete)
def createTable(self,tablename,columns):
self.tableManager.createNewTable(tablename,columns)
def getGroupRights(self,id):
sqlCommand="SELECT * FROM Sys_droitsGroupes WHERE groupid=" + str(id)
result=self.parent.serverCommunication.runSQLQuery(sqlCommand,None)[0]
print(result)
rights={"motdepasseautre":result[1],"motdepassepersonnel":result[2],
"cronjobs":result[3],"regleaffaire":result[4],
"lireforms":result[5],"modifforms":result[6],"remplirformulaire":result[7],"modifusagers":result[8],"lireusagers":result[9],"modifrapport":result[10],"lirerapport":[11]}
return rights;
def getGroups(self):
sqlCommand="SELECT * FROM Sys_GroupesUtilisateurs"
return self.parent.serverCommunication.runSQLQuery(sqlCommand,None)
def saveGroup(self,group,modify):
if(modify==False): #then creates the group
sqlCommand="Insert into Sys_GroupesUtilisateurs(nom,niveau) VALUES"
self.parent.serverCommunication.runSQLQuery(sqlCommand,(group["name"],group["security"]))
else:
group["id"]=self.parent.serverCommunication.runSQLQuery("SELECT id FROM Sys_GroupesUtilisateurs WHERE nom ='"+group["oldname"]+"'",None)[0][0]
sqlCommand="UPDATE Sys_GroupesUtilisateurs SET nom='%s' ,niveau=%s WHERE id=%s" % (group["name"],group["security"],group["id"])
print(sqlCommand)
self.parent.serverCommunication.runSQLQuery(sqlCommand,None)
group["id"]=self.parent.serverCommunication.runSQLQuery("SELECT id FROM Sys_GroupesUtilisateurs WHERE nom ='"+group["name"]+"'",None)[0][0]
if(modify==False):
sqlCommand="Insert into Sys_droitsGroupes(groupid,motdepasseautre,motdepassepersonnel,cronjobs,regleaffaire,lireforms,modifforms,remplirformulaire,modifusagers,lireusagers,modifrapport,lirerapport) VALUES"
rights=group["rights"]
self.parent.serverCommunication.runSQLQuery(sqlCommand,(group["id"],rights["motdepasseautre"],rights["motdepassepersonnel"]
,rights["cronjobs"],rights["regleaffaire"],rights["lireforms"]
,rights["modifforms"],rights["remplirformulaire"],rights["modifusagers"]
,rights["lireusagers"],rights["modifrapport"],rights["lirerapport"]
))
else:
rights=group["rights"]
sqlCommand="UPDATE Sys_droitsGroupes SET motdepasseautre=%d,motdepassepersonnel=%s,cronjobs=%s,regleaffaire=%s,lireforms=%s,modifforms=%s,remplirformulaire=%s,modifusagers=%s,lireusagers=%s,modifrapport=%s,lirerapport=%s WHERE groupid=%s" %(rights["motdepasseautre"],rights["motdepassepersonnel"]
,rights["cronjobs"],rights["regleaffaire"],rights["lireforms"]
,rights["modifforms"],rights["remplirformulaire"],rights["modifusagers"]
,rights["lireusagers"],rights["modifrapport"],rights["lirerapport"],group["id"])
self.parent.serverCommunication.runSQLQuery(sqlCommand,None)
def modifyTable(self,tablename,columns):
self.tableManager.modifyTable(tablename,columns)
def deleteTable(self,tablename):
self.tableManager.deleteTable(tablename)
def testOfDestruction(self):
for i in range (50000):
bindings = [ None, "dragomir"+str(i),"allo" , "ca va", "yooo", "allo" ]
self.parent.serverCommunication.runSQLQuery('INSERT INTO Sys_Usagers values', bindings )
if key not in flat_data:
flat_data[key] = []
long_data[key] = []
with open(fname, "r") as handle:
for line in handle:
cmin, cmax, Hj, Hc = line.strip().split(",")
if cmin == "0" and cmax == index:
if flatten:
append_flatten_data(key, cmin, cmax, Hj, Hc)
else:
append_data(key, cmin, cmax, Hj, Hc)
# Create the table...
t = Table.Table(8, justs='lccccccc', caption='Table mang.', label="tab:table")
cols = [range(1, 21)] # base on the data
print len(flat_data.keys())
t.add_header_row(["Index Offset"] + flat_data.keys())
for key in flat_data:
col = []
for (cmin, cmax, Hj, Hc) in flat_data[key]:
if int(cmax) < 21:
orig = float(base[cmax][0])
Hj = float(Hj)
if orig == 0.0:
col.append("NaN")
else:
percent = ((float(Hj) - float(orig)) / float(orig)) * 100.0
col.append(percent)
def __FROM(self, table):
self.tables.insert(0, Table.copy(table))
class BilliardGame:
def __init__(self):
self.table = Table(1212, 634)
self.whiteBall = BilliardBall(0, 18, Point2D(0,0))
self.yellowBall = BilliardBall(1, 1, Point2D(0,0))
self.blueBall = BilliardBall(2, 18, Point2D(0,0))
self.redBall = BilliardBall(3, 1, Point2D(0,0))
self.purpleBall = BilliardBall(4, 1, Point2D(0,0))
self.orangeBall = BilliardBall(5, 18, Point2D(0,0))
self.greenBall = BilliardBall(6, 18, Point2D(0,0))
self.brownBall = BilliardBall(7, 18, Point2D(0,0))
self.blackBall = BilliardBall(8, 18, Point2D(0,0))
self.strYellowBall = BilliardBall(9, 18, Point2D(0,0))
self.strBlueBall = BilliardBall(10, 1, Point2D(0,0))
self.strRedBall = BilliardBall(11, 1, Point2D(0,0))
self.strPurpleBall = BilliardBall(12, 1, Point2D(0,0))
self.strOrangeBall = BilliardBall(13, 1, Point2D(0,0))
self.strGreenBall = BilliardBall(14, 1, Point2D(0,0))
self.strBrownBall = BilliardBall(15, 1, Point2D(0,0))
self.balls = [ self.whiteBall, self.yellowBall, \
self.blueBall, self.redBall, \
self.purpleBall, self.orangeBall, \
self.greenBall, self.brownBall, \
self.blackBall, self.strYellowBall, \
self.strBlueBall, self.strRedBall, \
self.strPurpleBall, self.strOrangeBall, \
self.strGreenBall, self.strBrownBall]
def transformBall(self, number, vector):
self.balls[number].move(vector)
def getAfterCollisionRange(self, moveBall, stayBall):
radius = moveBall.radius
dist = distance(moveBall.position, stayBall.position)
m.
def getCollisionPos(self, moveBall, stayBall):
#moveBall = self.balls[moveBallNum]
#stayBall = self.balls[stayBallNum]
radius = moveBall.radius
sx = stayBall.position.x
sy = stayBall.position.y
#moveFunc = LinearFunc(0, moveBall.velocity.x)
move_function = Linear_function(point1 = moveBall.position, vector = moveBall.velocity)
a = move_function.slope * move_function.slope + 1.0
b = 2.0 * (move_function.slope * move_function.constant - move_function.slope * sy - sx)
c = sx * sx - 4.0 * radius * radius + (sy - move_function.constant) * (sy - move_function.constant)
delta = b * b - 4.0 * a * c
if delta <= 0:
raise Failure("\nSimulation terminated unexpectedly\n ERROR: no collision detected")
#elif delta == 0:
# collision_x = (-1 * b) / (2 * a)
# collision_y = move_function.getValue(collision_x)
# return Point2D(collision_x, collision_y)
else:
x1 = ((-1 * b) - m.sqrt(delta)) / (2 * a)
y1 = move_function.getValue(x1)
x1y1 = Point2D(x1, y1)
x2 = ((-1 * b) + m.sqrt(delta)) / (2 * a)
y2 = move_function.getValue(x2)
x2y2 = Point2D(x2, y2)
x1y1_to_stay_function = Linear_function(point1 = Point2D(x1, y1), point2 = stayBall.position)
x2y2_to_stay_function = Linear_function(point1 = Point2D(x2, y2), point2 = stayBall.position)
tan_x1y1 = (x1y1_to_stay_function.slope - move_function.slope) / (1 + x1y1_to_stay_function.slope * move_function.slope)
tan_x2y2 = (x2y2_to_stay_function.slope - move_function.slope) / (1 + x2y2_to_stay_function.slope * move_function.slope)
if distance(moveBall.position, x1y1) < distance(moveBall.position, x2y2):
theta = m.pi/2 - m.atan(tan_x1y1)
new_stay_sp = moveBall.speed * m.sin(theta)
new_stay_ve = Vector2D(from_point = x1y1, to_point = stayBall.position)
k = new_stay_sp / new_stay_ve.length()
stayBall.setVelocity(new_stay_ve.scale(k))
#self.balls[stayBallNum].setVelocity(new_stay_ve.scale(k))
new_move_sp = moveBall.speed * m.cos(theta)
new_move_ve = new_stay_ve.normal()
k_ = new_move_sp / new_move_ve.length()
self.haloBall = BilliardBall(99, 9, x1y1)
self.haloBall.setVelocity(new_move_ve.scale(k_))
return x1y1
else:
theta = m.pi/2 - m.atan(tan_x2y2)
#print "tan_x2y2 = ", tan_x2y2
#print "delta = ", m.degrees(m.atan(tan_x2y2))
#print "theta = ", m.degrees(theta)
new_stay_sp = moveBall.speed * m.sin(theta)
#print "move ball speed = ", moveBall.speed
#print "new_stay_sp = ", new_stay_sp
new_stay_ve = Vector2D(from_point = x2y2, to_point = stayBall.position)
#print "new_stay_ve = (", new_stay_ve.x_factor, ",", new_stay_ve.y_factor, ")"
k = new_stay_sp / new_stay_ve.length()
#print "new_stay_ve.length = ", new_stay_ve.length()
#print "scale k = ", k
stayBall.setVelocity(new_stay_ve.scale(k))
#self.balls[stayBallNum].setVelocity(new_stay_ve.scale(k))
new_move_sp = moveBall.speed * m.cos(theta)
new_move_ve = new_stay_ve.normal()
k_ = new_move_sp / new_move_ve.length()
self.haloBall = BilliardBall(99, 9, x2y2)
self.haloBall.setVelocity(new_move_ve.scale(k_))
return x2y2
def getClosestPocket(self, ball):
min_dist = float('inf')
pocket_num = 0
for pocket in self.table.pockets:
dist = distance(ball.position, pocket.position)
if dist < min_dist:
min_dist = dist
pocket_num = pocket.number
return pocket_num
def simulate(self):
print "____________________________________________________"
print " "
print " Pool Ball Game Simulation begin "
print "____________________________________________________\n\n"
img = cv2.imread('simple_game_crop.png')
height, width, channels = img.shape
print "image width: ", width
print "image height: ", height
white_ball_pos = Point2D(1061.0, 510.0)
yellow_ball_pos = Point2D(863.0, 268.0)
blue_ball_pos = Point2D(271.0, 316.0)
brown_ball_pos = Point2D(780.0, 58.0)
orange_ball_pos = Point2D(698.0, 185.0)
green_ball_pos = Point2D(624.0, 213.0)
black_ball_pos = Point2D(71.0, 92.0)
sim_velocity = Vector2D(from_point = white_ball_pos, to_point = yellow_ball_pos).scale(0.5)
self.balls[0].setPosition(point = white_ball_pos)
self.balls[9].setPosition(point = yellow_ball_pos)
self.balls[2].setPosition(point = blue_ball_pos)
self.balls[5].setPosition(point = orange_ball_pos)
self.balls[6].setPosition(point = green_ball_pos)
self.balls[7].setPosition(point = brown_ball_pos)
self.balls[8].setPosition(point = black_ball_pos)
# check balls have velocity or not
self.balls[0].setVelocity(sim_velocity)
#p = Point2D(0,0)
white = self.balls[0]
cv2.circle(img,(int(white.position.x),int(white.position.y)), white.radius, (0,0,255), 2)
yellow = self.balls[9]
cv2.circle(img,(int(yellow.position.x),int(yellow.position.y)), yellow.radius, (0,0,255), 2)
blue = self.balls[2]
cv2.circle(img,(int(blue.position.x),int(blue.position.y)), blue.radius, (0,0,255), 2)
orange = self.balls[5]
cv2.circle(img,(int(orange.position.x),int(orange.position.y)), orange.radius, (0,0,255), 2)
green = self.balls[6]
cv2.circle(img,(int(green.position.x),int(green.position.y)), green.radius, (0,0,255), 2)
brown = self.balls[7]
cv2.circle(img,(int(brown.position.x),int(brown.position.y)), brown.radius, (0,0,255), 2)
black = self.balls[8]
cv2.circle(img,(int(black.position.x),int(black.position.y)), black.radius, (0,0,255), 2)
p = self.getCollisionPos(self.balls[0], self.balls[9])
print "white ball located at: (", white.position.x, ",", white.position.y, ")"
print "white ball speed is: ", white.speed
print "yellow ball located at: (", yellow.position.x, ",", yellow.position.y, ")"
print "the closest pocket to yellow is: ", self.getClosestPocket(yellow)
print "collision point is at: (", p.x, ",", p.y, ")"
yellow = self.balls[9]
print "After collision: \n yellow ball speed is: ", yellow.speed
cv2.line(img, (int(white.position.x),int(white.position.y)), (int(white.position.x+white.velocity.x_factor),
int(white.position.y+white.velocity.y_factor)), (0,0,255), 2)
cv2.line(img, (int(yellow.position.x),int(yellow.position.y)), (int(yellow.position.x+yellow.velocity.x_factor),
int(yellow.position.y+yellow.velocity.y_factor)), (0,0,255), 2)
cv2.circle(img,(int(p.x),int(p.y)), white.radius, (0,0,255), 2)
q = self.haloBall
cv2.line(img, (int(q.position.x),int(q.position.y)), (int(q.position.x+q.velocity.x_factor),int(q.position.y+q.velocity.y_factor)), (0,0,255), 2)
self.table.showPockets(img)
cv2.imshow('image',img)
cv2.waitKey(0)
cv2.destroyAllWindows()
print "\n\n##########simulation terminated successfully##########\n"
class SamplesStack:
def DrawAndSave(self, stack , hist , name , LogY = 0 , external_title = '' , errors_to_draw=[]):
#if not name == "bbbTopTopEta" :
# return 0.0
if not os.access( self.Channel , os.F_OK) :
os.mkdir( self.Channel )
hOne = TH1D('hOne' , 'One' , hist.GetNbinsX() , hist.GetBinLowEdge(1) , hist.GetBinLowEdge(hist.GetNbinsX())+hist.GetBinWidth(hist.GetNbinsX()) )
hOne.SetStats(0)
hOne.SetLineColor(4)
hOne.SetLineWidth(2)
hOne.SetLineStyle(3)
for nBin in range(1, hist.GetNbinsX()+1):
err = sqrt(hist.GetBinContent(nBin))
hist.SetBinError(nBin, err)
hOne.SetBinContent( nBin , 1)
hOne.SetBinError( nBin , 0)
c = TCanvas(name, '', 800, 800)
c.Divide(1,2, 0.0 , 0.0)
c1 = c.cd(1)
c1.SetLeftMargin(0.09)
c1.SetRightMargin(0.02333333)
c1.SetTopMargin(0.04)
c1.SetLogy(LogY)
maxVal = stack.GetMaximum()
if hist.GetBinContent(hist.GetMaximumBin()) > maxVal:
stack.SetMaximum( 1.01*hist.GetBinContent(hist.GetMaximumBin()) )
maxVal = hist.GetBinContent(hist.GetMaximumBin())
if not len(errors_to_draw) == 0 :
maxVal *= 1.4
stack.Draw("9 HIST")
xaxisTitle = hist.GetXaxis().GetTitle()
if not external_title == '':
xaxisTitle = external_title
stack.GetHistogram().GetXaxis().SetTitle( '' )
stack.GetHistogram().GetXaxis().SetLabelSize(0.0)
#if LogY == 1:
#stack.GetHistogram().GetYaxis().SetRangeUser(1 , maxVal)
#else:
stack.GetHistogram().GetYaxis().SetRangeUser(0.0 , maxVal)
hist.SetLineWidth( 2 )
hist.GetXaxis().SetTitle('')
hist.GetXaxis().SetLabelSize(0.0)
hist.GetYaxis().SetTitle('')
hist.Draw("9 E1 SAME")
leg = TLegend(0.75,0.75,0.95,0.95)
leg.SetBorderSize( 0 )
leg.SetTextFont(62)
leg.SetLineColor(1)
leg.SetLineStyle(1)
leg.SetLineWidth(1)
leg.SetFillColor(0)
leg.SetFillStyle(0)
for category in SampleCategoriesOrdered:
if category == "Systematics" :
continue
color = SampleCategoriesColors[category]
leg_entry_name = "%(cat)s_%(color)d" % {"cat":"category" , "color":color}
print leg_entry_name
entry = None
if category == "Data":
entry=leg.AddEntry(leg_entry_name,category,"PLE")
else:
entry=leg.AddEntry(leg_entry_name,category,"F")
entry.SetLineColor(color)
entry.SetLineStyle(1)
entry.SetLineWidth(1)
entry.SetMarkerColor(color)
entry.SetMarkerStyle(21)
entry.SetMarkerSize(1)
entry.SetFillColor(color)
entry.SetFillStyle(1001)
c1.SetPad( 0 , 0.295 , 1, 1)
c1.cd()
leg.SetOption("BR NDC")
leg.ConvertNDCtoPad()
leg.Draw()
latex = TLatex( 0.15 , 0.91 , "CMS Preliminary, 4.6 fb^{-1} at #sqrt{s} =7TeV" )
c1.cd()
latex.SetNDC(True)
latex.Draw()
c1.Modified()
c2 = c.cd(2)
c2.SetPad( c2.GetXlowNDC(), c2.GetXlowNDC() , 1 , 0.295)
c2.Range(-2.636104,-0.3032786,225.4441,1.568279)
c2.SetLeftMargin(0.09)
c2.SetRightMargin(0.02333333)
c2.SetTopMargin(0.04)
c2.SetBottomMargin(0.4)
hDivision = TH1D('hDivision' , 'Data/MC' , hist.GetNbinsX() , hist.GetBinLowEdge(1) , hist.GetBinLowEdge(hist.GetNbinsX())+hist.GetBinWidth(hist.GetNbinsX()) )
hSum = TH1D('hSum' , 'SUM_MC' , hist.GetNbinsX() , hist.GetBinLowEdge(1) , hist.GetBinLowEdge(hist.GetNbinsX())+hist.GetBinWidth(hist.GetNbinsX()) )
#hSum.Print("ALL")
#hist.Print("ALL")
Errors = {}
for nBin in range(1, hist.GetNbinsX()+1):
Errors[nBin] = 0.0
xx_for_errors = array.array('d')
yy_for_errors = array.array('d')
xxerr_for_errors = array.array('d')
yyerr_for_errors = array.array('d')
for h_MC in stack.GetHists():
#h_MC.Print()
hSum.Add( h_MC )
for nBin in range(1, hSum.GetNbinsX()+1):
Errors[nBin] = hSum.GetBinError(nBin)
if not len(errors_to_draw) == 0:
xx_for_errors.append( hSum.GetBinCenter(nBin) )
yy_for_errors.append( hSum.GetBinContent(nBin) )
yyerr_for_errors.append( errors_to_draw[nBin-1] )
xxerr_for_errors.append( hSum.GetBinWidth(nBin)/2 )
Errors[nBin] = sqrt( errors_to_draw[nBin-1]*errors_to_draw[nBin-1] + hSum.GetBinError(nBin)*hSum.GetBinError(nBin) )
if not len(errors_to_draw) == 0:
err_graph = TGraphErrors( hSum.GetNbinsX() , xx_for_errors , yy_for_errors , xxerr_for_errors , yyerr_for_errors)
c.cd(1)
err_graph.SetFillColor(kBlack)
err_graph.SetFillStyle(3005)
err_graph.Draw('2')
entry=leg.AddEntry("Systematics_Uncertainity","Syst. Unc.","F")
entry.SetFillColor(kBlack)
entry.SetFillStyle(3005)
c.cd(2)
for nBin in range(1, hSum.GetNbinsX()+1):
hSum.SetBinError( nBin , Errors[nBin] )
hDivision.Divide( hist , hSum )
hDivision.GetYaxis().SetRangeUser( 0.5 , 1.5)
hDivision.SetStats(0)
hDivision.SetLineWidth(2)
hDivision.SetLineColor(2)
hDivision.GetYaxis().SetLabelSize(0.08)
hDivision.GetXaxis().SetLabelSize(0.1)
hDivision.GetXaxis().SetTitleSize(0.2)
hDivision.GetXaxis().SetTitle(xaxisTitle)
#hDivision.GetXaxis().SetLabelSize(0.0)
hDivision.GetYaxis().SetNdivisions(3 , 6 , 0 , True)
hDivision.Draw("E1")
hOne.Draw("SAME C")
total_difference = 0.0
for nBin in range(1, hist.GetNbinsX()+1):
data_in_bin = hist.GetBinContent(nBin)
mc_in_bin = hSum.GetBinContent(nBin)
total_difference += (data_in_bin - mc_in_bin)
c.cd()
c.Modified()
c.SaveAs(self.Channel + '/' + name + '.gif' )
c.SaveAs(self.Channel + '/' + name + '.C' )
c.SaveAs(self.Channel + '/' + name + '.pdf' )
# c.SaveAs(self.Channel + '/' + name + '.eps' )
c.Close()
return total_difference
def DrawCosTheta(self , Data , Errors = []):
dataType = type( Data )
data = dataType. __getattribute__(Data , self.Channel)
NNName = '_cos_theta'
if not len(Errors) == 0:
NNName += '_errors'
deltaMC_Data_CosTheta = self.DrawAndSave( self.stack_costheta['10'] , data.hCosTheta['10'] , self.Channel + NNName , 0 , 'cos(#theta^{*})' , Errors )
deltaMC_Data_CosTheta_LogY = self.DrawAndSave( self.stack_costheta['10'] , data.hCosTheta['10'] , self.Channel +NNName + '_logy' , 1 , 'cos(#theta^{*})' , Errors )
ret = '*** Plot of Cos(\\theta) for selected events \n'
ret = ret + ' - Difference is : 2*' + str(deltaMC_Data_CosTheta/2) + '\n'
ret = ret + ' [[[%(Channel)s/%(Channel)s%(NNName)s.gif]]]'%{'Channel':self.Channel, 'NNName':NNName} + '\n'
ret = ret + ' [[[%(Channel)s/%(Channel)s%(NNName)s_logy.gif]]]'%{'Channel':self.Channel, 'NNName':NNName} + '\n'
if len(Errors) == 0:
deltaMC_Data_CosThetaPreselected = self.DrawAndSave( self.stack_costheta_preselected , data.hCosThetaPreselected , self.Channel + '_cos_theta_preselected',1, 'cos(#theta^{*})' )
ret = ret + '*** Plot of Cos(\\theta) for pre-selected events \n'
ret = ret + ' - Difference is : 2*' + str(deltaMC_Data_CosThetaPreselected/2) + '\n'
ret = ret + ' [[[%(Channel)s/%(Channel)s_cos_theta_preselected.gif]]]'%{'Channel':self.Channel} + '\n'
return ret
def DrawTopRecPlots(self, Data):
dataType = type( Data )
data = dataType. __getattribute__(Data , self.Channel)
self.t_TopRecPropertiesLinks = Table(False)
TheRow = RowObject()
PropertiesLinks = {}
for Property in self.AllTopRecStacks.keys():
stack_prop = self.AllTopRecStacks[Property]
hPropd = data.AllTopRecPlots[Property]
ImgFileName = 'bbb'+ Property
ImgFileName = ImgFileName.replace("_", 'z')
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName ,0)
TheRow[Property] = '@<a id="%(id)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'id':(Property).replace('_', 'x') , 'PropName':Property}
stack_prop = self.stack_NPrVtxAll
hPropd = data.NPrVtxAll
ImgFileName = 'bbbNPrVtxAll'
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
TheRow['NPrVtxAll'] = '@<a id="%(PropName)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'PropName':Property}
stack_prop = self.stack_NPrVtxAllNoW
hPropd = data.NPrVtxAllNoW
ImgFileName = 'bbbNPrVtxAllNoW'
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
TheRow['NPrVtxAllNoW'] = '@<a id="%(PropName)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(PropName)s@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'PropName':Property}
self.t_TopRecPropertiesLinks.append( TheRow )
return self.t_TopRecPropertiesLinks
def DrawAllProperties(self , Data):
dataType = type( Data )
data = dataType. __getattribute__(Data , self.Channel)
self.t_PropertiesLinks = Table(False)
PropertiesLinks = {}
for Property in self.PropertiesToDraw.keys():
PropertiesLinks[Property] = RowObject()
PropertiesLinks[Property]['0-Property'] = Property
for CutID in sorted(self.AllSortedDirectories.keys()):
Cut = self.AllSortedDirectories[CutID]
stack_prop = self.PropertiesToDraw[Property][Cut]
hPropd = data.PropertiesToDraw[Property][Cut]
if Cut == '':
stack_prop.SetTitle( '%(Channel)s : after pair choose' % {'Channel':self.Channel } )
else:
stack_prop.SetTitle( '%(Channel)s : after cut on %(Cut)s' % {'Channel':self.Channel, 'Cut':Cut } )
ImgFileName = 'aaa'+ str(CutID)+ "_" +Cut+ "_" + Property
ImgFileName = ImgFileName.replace("_", 'z')
TotalDiff = self.DrawAndSave(stack_prop, hPropd, ImgFileName , 0)
PropertiesLinks[Property]['%(ID)d-%(Name)s'%{'ID':CutID+1 , 'Name':Cut}] = '@<a id="%(id)s" href="%(file)s" class="highslide" onclick="return hs.expand(this)">%(Diff)d@</a>' % {'file':self.Channel + '/' + ImgFileName + '.gif' , 'id':(Cut+'_'+Property).replace('_', 'x') , 'Diff':TotalDiff}
CutID = CutID+1
self.t_PropertiesLinks.append( PropertiesLinks[Property] )
return self.t_PropertiesLinks
def __init__(self , ArrayOfAllSamples, sortedSamples , StackCosTheta = True , StackControlPlots = True , StackOtherPlots = True):
self.Row = RowObject()
self.RowW = RowObject()
sample_id = 0
for category in reversed(SampleCategoriesOrdered):
for sampleName in sortedSamples:
if ArrayOfAllSamples.keys().count(sampleName) == 0:
continue
sample = ArrayOfAllSamples[sampleName]
if category.count( sample.Category ) == 0:
continue
#print sample.Sample
if sample_id == 0:
self.Channel = sample.Channel
self.AllSortedDirectories = sample.AllSortedDirectories
if StackCosTheta:
self.stack_costheta = {}
for cosTheta in sample.hCosTheta.keys():
self.stack_costheta[cosTheta] = THStack("stackCosTheta" +cosTheta+ "_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
# self.stack_costheta['10'] = THStack("stackCosTheta10_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
# self.stack_costheta['20'] = THStack("stackCosTheta20_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
# self.stack_costheta['25'] = THStack("stackCosTheta25_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
# self.stack_costheta['50'] = THStack("stackCosTheta50_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
# self.stack_costheta['100'] = THStack("stackCosTheta100_" + self.Channel ,'CosTheta for ' + self.Channel +' Events')
self.stack_costheta_preselected = THStack("preselected_stackCosTheta_" + self.Channel ,'CosTheta for preselected ' + self.Channel +' Events')
if StackControlPlots:
self.PropertiesToDraw = {}
for column in sample.Row:
self.Row[column] = sample.Row[column]
self.Row[ sorted(self.Row.keys())[0] ] = ''
for column in sample.RowW:
self.RowW[column] = sample.RowW[column]
self.RowW[ sorted(self.RowW.keys())[0] ] = ''
for Property in sample.PropertiesToDraw.keys():
allStacks = {}
for Cut in sample.PropertiesToDraw[Property].keys():
stack_newName = 'stack_%(Channel)s_%(Cut)s_%(Property)s' % {'Cut':Cut , 'Property':Property , 'Channel':self.Channel }
allStacks[Cut]= THStack( stack_newName , stack_newName )
allStacks[Cut].Add( sample.PropertiesToDraw[Property][Cut] )
self.PropertiesToDraw[Property] = allStacks
if StackOtherPlots:
self.AllTopRecStacks = {}
for prop in sample.AllTopRecPlots.keys():
self.AllTopRecStacks[prop] = THStack("stack_" + prop + "_" + self.Channel , sample.AllTopRecPlots[prop].GetTitle() )
self.AllTopRecStacks[prop].Add( sample.AllTopRecPlots[prop] )
self.stack_NPrVtxAll = THStack("stack_NPrVtxAll_" + self.Channel , '# Primary vertices')
self.stack_NPrVtxAllNoW = THStack("stack_NPrVtxAllNoW_" + self.Channel , '# Primary vertices , no pu')
sample_id = 1
else:
if StackControlPlots:
for column in sorted(self.Row.keys())[1:]:
self.Row[column] = self.Row[column] + sample.Row[column]
for column in sorted(self.RowW.keys())[1:]:
self.RowW[column] = self.RowW[column] + sample.RowW[column]
for Property in sample.PropertiesToDraw.keys():
for Cut in sample.PropertiesToDraw[Property].keys():
self.PropertiesToDraw[Property][Cut].Add( sample.PropertiesToDraw[Property][Cut] )
if StackOtherPlots:
for prop in sample.AllTopRecPlots.keys():
self.AllTopRecStacks[prop].Add( sample.AllTopRecPlots[prop] )
if StackCosTheta:
for cosTheta in sample.hCosTheta.keys():
self.stack_costheta[cosTheta].Add( sample.hCosTheta[cosTheta] )
# self.stack_costheta['10'].Add( sample.hCosTheta['10'] )
# self.stack_costheta['20'].Add( sample.hCosTheta['20'] )
# self.stack_costheta['25'].Add( sample.hCosTheta['25'] )
# self.stack_costheta['50'].Add( sample.hCosTheta['50'] )
# self.stack_costheta['100'].Add( sample.hCosTheta['100'] )
self.stack_costheta_preselected.Add( sample.hCosThetaPreselected )
if StackOtherPlots:
self.stack_NPrVtxAll.Add( sample.NPrVtxAll )
self.stack_NPrVtxAllNoW.Add( sample.NPrVtxAllNoW )
def insertRun(self, filename, position = -1, rows = 1):
"""Insert a run with all of its child tables and projections
into the data datatree/data store. The input filename should
refer to the meta file denoting the run.
"""
parentItem = self._rootItem
metadata, filelist = yl.load_meta(filename)
if position == -1:
position = parentItem.childCount()
# Create RunItem
self.beginInsertRows(QModelIndex(), position, position + rows - 1)
runItem = RunItem(os.path.basename(filename), metadata, parentItem)
self.endInsertRows()
# Create groups for Tables and Projections
self.beginInsertRows(self.createIndex(position, 0, runItem), 0, 2)
tablesItem = GroupItem("tables", parent = runItem)
projectionsItem = GroupItem("projections", parent = runItem)
self.endInsertRows()
# Create TableItems and ProjectionItems
for filedict in filelist:
if filedict['filetype'].upper() == "TABLE":
type_string = filedict['domain'] + "_" + filedict['type']
data_type = SubDomain.instantiate(type_string)
if data_type is None:
print "No matching type found for", filedict['type'], \
"! Skipping table..."
continue
filepath = os.path.join(os.path.dirname(filename),
filedict['filename'])
metadata, data = yl.load_table(filepath)
if metadata:
combined_meta = dict(metadata.items() + filedict.items())
else:
combined_meta = filedict
atable = Table()
atable.fromRecArray(data_type, filedict['field'], data)
self.insertTable(filedict['filename'], atable, combined_meta, \
parent = self.createIndex(position, 0, tablesItem))
elif filedict['filetype'].upper() == "PROJECTION":
domainlist = filedict['subdomain']
mydomains = list()
mykeys = list()
for subdomaindict in domainlist:
type_string = subdomaindict['domain'] + "_" \
+ subdomaindict['type']
data_type = SubDomain.instantiate(type_string)
if data_type is None:
print "No matching type found for", \
subdomaindict['type'], "! Skipping projection..."
continue
else:
mydomains.append(data_type)
mykeys.append(subdomaindict['field'])
if len(mydomains) != 2:
print "Not enough domains for projection. Skipping..."
continue
# Different projections created here per type. Again, probably
# should be moved to different class.
if filedict['type'].upper() == "FILE":
filepath = os.path.join(os.path.dirname(filename),
filedict['filename'])
metadata, data = yl.load_table(filepath)
if metadata:
combined_meta = dict(metadata.items() + filedict.items())
else:
combined_meta = filedict
atable = Table()
atable.fromRecArray(mydomains[0], mykeys[0], data)
aprojection = TableProjection(mydomains[0], mydomains[1],
source_key = mykeys[0], destination_key = mykeys[1],
table = atable)
self.insertProjection(mydomains[0].typename() + "<->"
+ mydomains[1].typename(), aprojection, combined_meta,
parent = self.createIndex(position, 0, projectionsItem))
else:
aprojection = Projection.instantiate(filedict['type'],
mydomains[0], mydomains[1], run = runItem, **filedict)
self.insertProjection(mydomains[0].typename() + "<->"
+ mydomains[1].typename(), aprojection, filedict,
parent = self.createIndex(position, 0, projectionsItem))
runItem.refreshSubdomains()
self.createSubDomainTables(runItem, projectionsItem, tablesItem)
return True
def __init__(self, table_info): self.__decision_block = TableGui.DecisionBlock() self.__table_info = table_info self.__table = Table(table_info, self)
class TableGui:
card_height = 70
card_width = 50
blind_size = 45
info_height = 150
info_width = 150
name_height = 20
center_x = 300
center_y = 200
table_card_coef = 1.5
class PlayerInfoView:
def __init__(self, player_info, scene, x, y):
self.__player_info = player_info
self.__scene = scene
self.__pos = (x, y)
self.__player_info.add_crl_cards(self)
self.__player_info.add_crl_many(self)
self.__player_info.add_crl_blind(self)
self.__player_info.add_crl_ante(self)
self.__player_info.add_crl_active_alive(self)
self.__init_player_background()
self.__init_player_name_view()
self.__init_hand_card_view()
self.__init_many_view()
self.__init_ante_view()
self.__init_blind_view()
def __init_player_background(self):
x = self.__pos[0]
y = self.__pos[1]
# self.__player_background = QGraphicsRectItem(x - 20, y - 20, TableGui.card_width * 3 + 40, TableGui.card_height + 70)
self.__player_background = QGraphicsRectItem(x, y, TableGui.info_width, TableGui.info_height)
self.__player_background.setBrush(Qt.yellow)
self.__scene.addItem(self.__player_background)
def __init_player_name_view(self):
x = self.__pos[0]
y = self.__pos[1]
self.__name_view = QGraphicsTextItem(self.__player_info.name())
self.__name_view.setPos(x, y)
self.__scene.addItem(self.__name_view)
def __init_hand_card_view(self):
x = self.__pos[0] + TableGui.name_height
y = self.__pos[1] + TableGui.name_height
self.__hand = self.__player_info.hand_cards()
self.__hand_pixmaps = []
cur_card_x = x
for card in self.__hand:
if not self.__player_info.is_hand_hidden():
picture_path = card.image_path()
else:
picture_path = card.jacket_image_path()
pixmap_item = QGraphicsPixmapItem(QPixmap(picture_path).scaledToHeight(TableGui.card_height))
pixmap_item.setPos(cur_card_x, y)
self.__scene.addItem(pixmap_item)
self.__hand_pixmaps.append(pixmap_item)
cur_card_x += TableGui.card_width
def hand_cards_changed(self):
self.__hand = self.__player_info.hand_cards()
i = 0
for card in self.__hand:
if not self.__player_info.is_hand_hidden():
picture_path = card.image_path()
else:
picture_path = card.jacket_image_path()
self.__hand_pixmaps[i].setPixmap(QPixmap(picture_path).scaledToHeight(TableGui.card_height))
i += 1
def blind_changed(self):
blind = self.__player_info.blind()
if blind == 0:
self.__blind.setPixmap(QPixmap())
elif blind == 1:
self.__blind.setPixmap(QPixmap('images/littleblind.jpg').scaledToWidth(TableGui.card_width))
else:
self.__blind.setPixmap(QPixmap('images/bigblind.jpg').scaledToWidth(TableGui.card_width))
def ante_changed(self):
ante_text = 'FOLD'
if not self.__player_info.is_folded():
ante = self.__player_info.ante()
ante_text = str(ante)
self.__ante_text.setPlainText('Ante: ' + ante_text)
def many_changed(self):
many = self.__player_info.many()
self.__many_text.setPlainText('Many: ' + str(many))
def active_alive_changed(self):
if not self.__player_info.is_alive():
self.__player_background.setBrush(Qt.red)
return
if self.__player_info.is_active():
self.__player_background.setBrush(Qt.green)
return
self.__player_background.setBrush(Qt.yellow)
return
def __init_many_view(self):
x = self.__pos[0]
y = self.__pos[1] + TableGui.name_height
self.__many_text = QGraphicsTextItem('Many: ' + str(self.__player_info.many()))
self.__many_text.setPos(x, y + TableGui.card_height)
self.__scene.addItem(self.__many_text)
def __init_ante_view(self):
x = self.__pos[0]
y = self.__pos[1] + TableGui.name_height
self.__ante_text = QGraphicsTextItem('Ante: ' + str(self.__player_info.ante()))
self.__ante_text.setPos(x, y + TableGui.card_height + TableGui.name_height)
self.__scene.addItem(self.__ante_text)
def __init_blind_view(self):
x = self.__pos[0]
y = self.__pos[1] + TableGui.name_height
self.__blind = QGraphicsPixmapItem(QPixmap())
if self.__player_info.blind() == 1:
self.__blind = QGraphicsPixmapItem(QPixmap('images/littleblind.jpg').scaledToWidth(TableGui.blind_size))
elif self.__player_info.blind() == 2:
self.__blind = QGraphicsPixmapItem(QPixmap('images/bigblind.jpg').scaledToWidth(TableGui.blind_size))
self.__blind.setPos(x + 1.8 * TableGui.card_width, y + TableGui.card_height * 1.1)
self.__scene.addItem(self.__blind)
class OpenedCardView:
def __init__(self, scene, table_info):
self.__scene = scene
self.__table_info = table_info
table_info.add_crl_opened_cards(self)
self.__card_view = []
self.__card_view.append(QGraphicsPixmapItem(QPixmap()))
self.__scene.addItem(self.__card_view[0])
self.__card_view.append(QGraphicsPixmapItem(QPixmap()))
self.__scene.addItem(self.__card_view[1])
self.__card_view.append(QGraphicsPixmapItem(QPixmap()))
self.__scene.addItem(self.__card_view[2])
self.__card_view.append(QGraphicsPixmapItem(QPixmap()))
self.__scene.addItem(self.__card_view[3])
self.__card_view.append(QGraphicsPixmapItem(QPixmap()))
self.__scene.addItem(self.__card_view[4])
self.__card_view[0].setPos(TableGui.center_x - TableGui.card_width * TableGui.table_card_coef, TableGui.center_y - TableGui.card_height / 2)
self.__card_view[1].setPos(TableGui.center_x, TableGui.center_y - TableGui.card_height / 2)
self.__card_view[2].setPos(TableGui.center_x + TableGui.card_width * TableGui.table_card_coef, TableGui.center_y - TableGui.card_height / 2)
self.__card_view[3].setPos(TableGui.center_x + TableGui.card_width * 2 * TableGui.table_card_coef, TableGui.center_y - TableGui.card_height / 2)
self.__card_view[4].setPos(TableGui.center_x + TableGui.card_width * 3 * TableGui.table_card_coef, TableGui.center_y - TableGui.card_height / 2)
self.opened_cards_changed()
def opened_cards_changed(self):
# clear
for card_view in self.__card_view:
card_view.setPixmap(QPixmap())
i = 0
for card in self.__table_info.opened_cards():
self.__card_view[i].setPixmap(QPixmap(card.image_path()).scaledToHeight(TableGui.card_height * TableGui.table_card_coef))
i += 1
class BankView:
def __init__(self, scene, table_info):
self.__scene = scene
self.__table_info = table_info
self.__table_info.add_crl_bank(self)
self.__bank_text = QGraphicsTextItem('Bank: %d' % table_info.bank())
self.__bank_text.setPos(TableGui.center_x, TableGui.center_y + TableGui.card_height)
self.__scene.addItem(self.__bank_text)
def bank_changed(self):
self.__bank_text.setPlainText('Bank: %d' % self.__table_info.bank())
class DecisionBlock:
btn_width = 70
btn_height = 25
def __init__(self):
pass
def start(self, scene, type, x, y):
# type must be 'Call' or 'Check'
self.__scene = scene
self.__type = type
self.__call_check_btn = QPushButton(type)
self.__call_check_btn.setGeometry(x, y, self.btn_width, self.btn_height)
self.__call_check_btn.setEnabled(False)
self.__scene.addWidget(self.__call_check_btn)
self.__fold_btn = QPushButton('Fold')
self.__fold_btn.setGeometry(x, y + self.btn_height, self.btn_width, self.btn_height)
self.__fold_btn.setEnabled(False)
self.__scene.addWidget(self.__fold_btn)
self.__raise_btn = QPushButton('Raise:')
self.__raise_btn.setGeometry(x + self.btn_width, y, self.btn_width, self.btn_height)
self.__raise_btn.setEnabled(False)
self.__scene.addWidget(self.__raise_btn)
self.__raise_sum_input = QLineEdit()
self.__raise_sum_input.setGeometry(x + self.btn_width * 2, y, self.btn_width, self.btn_height)
self.__raise_sum_input.setEnabled(False)
self.__scene.addWidget(self.__raise_sum_input)
self.__allin_btn = QPushButton('All-in')
self.__allin_btn.setGeometry(x + self.btn_width, y + self.btn_height, self.btn_width * 2, self.btn_height)
self.__allin_btn.setEnabled(False)
self.__scene.addWidget(self.__allin_btn)
self.__fold_btn.clicked.connect(self.__fold_clicked)
self.__call_check_btn.clicked.connect(self.__call_check_clicked)
self.__allin_btn.clicked.connect(self.__allin_clicked)
self.__raise_btn.clicked.connect(self.__raise_clicked)
def __fold_clicked(self):
self.deactivate(Turn('fold', 0))
def __call_check_clicked(self):
if (self.__player.player_info().many() + self.__player.player_info().ante() >= self.__min_value) and (
self.__min_value >= self.__player.player_info().ante()):
self.deactivate(Turn('check or call', self.__min_value))
def __allin_clicked(self):
if self.__player.player_info().many() > 0:
self.deactivate(Turn('allin', self.__player.player_info().many() + self.__player.player_info().ante()))
else:
msg_box = QMessageBox()
msg_box.setText('You have no many!')
msg_box.exec_()
def __raise_clicked(self):
try:
sum = int(self.__raise_sum_input.text())
if sum >= self.__blind and sum <= self.__player.player_info().many():
self.deactivate(Turn('raise', self.__player.player_info().ante() + sum))
else:
msg_box = QMessageBox()
msg_box.setText('You have no many enough to this raise!')
msg_box.exec_()
except ValueError:
msg_box = QMessageBox()
msg_box.setText('Not number in the input field!')
msg_box.exec_()
def activate(self, value, blind, player, func_to_call):
self.__call_check_btn.setEnabled(True)
self.__fold_btn.setEnabled(True)
self.__raise_btn.setEnabled(True)
self.__raise_sum_input.setEnabled(True)
self.__allin_btn.setEnabled(True)
self.__min_value = value
self.__blind = blind
self.__player = player
self.__func_to_call = func_to_call
def deactivate(self, turn_res):
self.__call_check_btn.setEnabled(False)
self.__fold_btn.setEnabled(False)
self.__raise_btn.setEnabled(False)
self.__raise_sum_input.setEnabled(False)
self.__allin_btn.setEnabled(False)
self.__func_to_call(turn_res)
def __init__(self, table_info):
self.__decision_block = TableGui.DecisionBlock()
self.__table_info = table_info
self.__table = Table(table_info, self)
def decision_block(self):
return self.__decision_block
def start(self):
self.__scene = QGraphicsScene()
self.__view = QGraphicsView(self.__scene)
self.__table_image = QGraphicsPixmapItem(QPixmap('table.png'))
self.__scene.addItem(self.__table_image)
angle = math.pi * 2 / self.__table_info.player_count()
radius_x = 400
radius_y = 250
cur_angle = math.pi / 2
for player in self.__table_info.players():
player_info_view = TableGui.PlayerInfoView(
player
, self.__scene
, TableGui.center_x + radius_x * math.cos(cur_angle)
, TableGui.center_y + radius_y * math.sin(cur_angle)
)
cur_angle += angle
opened_card_view = TableGui.OpenedCardView(self.__scene, self.__table_info)
bank_view = TableGui.BankView(self.__scene, self.__table_info)
self.__decision_block.start(self.__scene, 'Call', 300, 320)
self.__view.show()
def __call__(self):
self.__table.round()
files_xsec = files_ee_weights
DirectoryNameForSteps = ['None', 'None', 'None' , 'None' , 'None' , 'None', 'None', 'None', '_NumberOfBJets']
elif WhichChannel=='MM' :
data_file = 'DoubleMuon2011'
integrated_lumi = 4459.007
SF_OF_Value = 'SameFlavours'
DirectoryNameForSteps = ['None', 'None', 'None' , '' , '_InvMass12' , '_InvMassZ', '_NJets', '_MET', '_NumberOfBJets']
EventTypeMinVal = 3
EventTypeMaxVal = 4
if RunOnSelectedEvents:
files_xsec = files_mm_weights
DirectoryNameForSteps = ['None', 'None', 'None' , 'None' , 'None' , 'None', 'None', 'None', '_NumberOfBJets']
#Properties
PropertiesToDraw = {'NumberOfJets':{} , 'PFMET':{}, 'Electrons_InvariantMass':{}, 'JetsHT':{} , 'NumberOfBJets':{} , 'FirstLeptonEta':{} , 'FirstLeptonPt':{} , 'SecondLeptonEta':{} , 'SecondLeptonPt':{} , 'FirstJetPt':{} , 'SecondJetPt':{} , 'ThirdJetPt':{} }
t_PropertiesLinks = Table(False)
PropertiesLinks = {}
for Property in PropertiesToDraw.keys():
PropertiesLinks[Property] = RowObject()
t_PropertiesLinks.append( PropertiesLinks[Property] )
PropertiesHistoPathFormat = 'Selection/EventSelectionHistosAfterObjectCreation/%(SF_OF)s%(Folder)s/%(SF_OF)s%(Folder)s_DiLeptonEvent_EventTypevs%(Property)s'
cosThetaPlotName = 'costheta_%(channel)s/hCosThetaAllLepton' % {'channel':WhichChannel.lower()}
stack_costheta = THStack("stackCosTheta",'CosTheta for ' + WhichChannel +' Events')
selectionPlotName = 'Selection/hEventSelection%(channel)s' % {'channel':WhichChannel}
#STYLE INFO
colors = {'TTBarSummer2011':41, 'DYSummer2011':46 ,'WJetsSummer2011':31 , 'WWSummer2011':29 , 'SingleTopSummer2011':4 , 'SingleTopTWSummer2011':7 , 'WZSummer2011':90 , 'ZZSummer2011':66 }
def UpdateAN2(outUV, nIF, err):
"""
Convert AN table in outUV to nIF IFs
* outUV = output Obit UV object, defined but not instantiated
* nIF = number of desired output IFs
* err = Obit error/message stack
"""
################################################################
iANTab = outUV.NewTable(Table.READONLY, "AIPS AN", 1, err)
oANTab = outUV.NewTable(Table.WRITEONLY, "AIPS AN", 2, err, numIF=nIF)
iANTab.Open(Table.READONLY, err)
oANTab.Open(Table.WRITEONLY, err)
# copy keys
for k in iANTab.keys:
oANTab.keys[k] = iANTab.keys[k]
nrow = iANTab.Desc.Dict['nrow'] # How many rows?
maxant = -1
for irow in range(1, nrow + 1):
row = iANTab.ReadRow(irow, err) # Read input row
if row['NOSTA'][0] > maxant:
maxant = row['NOSTA'][0]
# Update row
pca0 = row['POLCALA'][0]
pca1 = row['POLCALA'][1]
pcb0 = row['POLCALB'][0]
pcb1 = row['POLCALB'][1]
bm = row['BEAMFWHM'][0]
Beama = []
PolcalAa = []
PolcalBa = []
for i in range(0, nIF):
Beama.append(bm)
PolcalAa.append(pca0)
PolcalAa.append(pca1)
PolcalBa.append(pcb0)
PolcalBa.append(pcb1)
row['BEAMFWHM'] = Beama
row['POLCALA'] = PolcalAa
row['POLCALB'] = PolcalBa
# Write output
oANTab.WriteRow(irow, row, err)
# End loop over rows
iANTab.Close(err)
oANTab.Close(err)
# zap AN old
outUV.ZapTable("AIPS AN", 1, err)
# Copy
iANTab = outUV.NewTable(Table.READONLY, "AIPS AN", 2, err)
oANTab = outUV.NewTable(Table.WRITEONLY, "AIPS AN", 1, err)
Table.PCopy(iANTab, oANTab, err)
# zap AN old
outUV.ZapTable("AIPS AN", 2, err)
# Update
outUV.UpdateDesc(err)
OErr.printErrMsg(err, "Error converting AN Table")
return maxant
def _render_icon_list(self):
# Include its JavaScript file
#
txt = '<script src="/static/js/icons.js" type="text/javascript"></script>'
txt += "<h1>Icons configuration</h1>"
tabs = []
# Suffixes
#
icons = self._cfg['icons!suffix']
tmp = ''
if icons and icons.has_child():
tmp += "<h3>Extension list</h3>"
table = Table(4, 1)
table += ('', 'File', 'Extensions', '')
for icon in icons:
cfg_key = 'icons!suffix!%s' % (icon)
im = self._get_img_from_icon(icon, cfg_key)
entry = self.InstanceEntry(cfg_key, 'text', size=45)
js = "post_del_key('/icons/update', '%s');" % (cfg_key)
link_del = self.InstanceImage("bin.png",
"Delete",
border="0",
onClick=js)
table += (im, icon, entry, link_del)
tmp += self.Indent(table)
# New suffix
fo1 = Form("/%s/add_suffix" % (self._id), add_submit=False, auto=False)
op1, im1 = self._get_options_icons('suffix_new_file',
self._filter_icons_in_suffixes)
en2 = self.InstanceEntry('suffix_new_exts', 'text')
ta1 = Table(4, 1)
ta1 += ('', 'Icon', 'Extensions', '')
ta1 += (im1, op1, en2, SUBMIT_ADD)
tmp += "<h3>Add suffix</h3>"
tmp += fo1.Render(self.Indent(ta1))
tabs += [('Extensions', tmp)]
# Special icons
#
table = Table(3, 1)
icons = self._cfg['icons']
op_def, im_def = self._get_options_icons('icons!default')
op_dir, im_dir = self._get_options_icons('icons!directory')
op_par, im_par = self._get_options_icons('icons!parent_directory')
table += ('', 'Icon', 'File')
table += (im_def, 'Default', op_def)
table += (im_dir, 'Directory', op_dir)
table += (im_par, 'Go to Parent', op_par)
tmp = "<h3>Special Entries</h3>"
tmp += self.Indent(table)
tabs += [('Special Icons', tmp)]
# Files
#
icons = self._cfg['icons!file']
tmp = ''
if icons and icons.has_child():
tmp += "<h3>File list</h3>"
table = Table(4, 1)
table += ('', 'Match', 'File')
for icon_name in icons:
cfg_key = 'icons!file!%s' % (icon_name)
match = self._cfg.get_val(cfg_key)
op, im = self._get_options_icons(cfg_key, selected=icon_name)
js = "post_del_key('/icons/update', '%s');" % (cfg_key)
link_del = self.InstanceImage("bin.png",
"Delete",
border="0",
onClick=js)
table += (im, match, op, link_del)
tmp += self.Indent(table)
# New file
fo1 = Form("/%s/add_file" % (self._id), add_submit=False, auto=False)
op1, im1 = self._get_options_icons('file_new_file')
en1 = self.InstanceEntry('file_new_match', 'text')
ta1 = Table(4, 1)
ta1 += ('', 'File', 'Icon', '')
ta1 += (im1, en1, op1, SUBMIT_ADD)
tmp += "<h3>Add file</h3>"
tmp += fo1.Render(self.Indent(ta1))
tabs += [('Files', tmp)]
txt += self.InstanceTab(tabs)
return txt
from Test import Test import Table import Plot N = 1000 t = Test(N) isb = t.InsertionSortBest() ism = t.InsertionSortRandom() isw = t.InsertionSortWorst() msb = t.MergeSortBest() msm = t.MergeSortRandom() msw = t.MergeSortWorst() Plot.GraphicPlot(N, isb, ism, isw, msb, msm, msw) Table.ExperimentalDataTable(isb, ism, isw, msb, msm, msw)
def __init__(self, frames, hdd):
self._frames = frames
self._free_frames = frames
self._table = Table()
self._hdd = hdd
def __WHERE(self, conditions, inTable=None):
OR_condition = self.__ORsplit(conditions)
temp = ''
result = None
self.__copyTable()
for o in OR_condition:
AND_condition = self.__ANDsplit(o)
temp_result = None
self.__reNew()
for c in AND_condition:
inC = c.split()
notIN = False
if 'IN' in inC:
inData = ''
for i in range(len(inC)):
if inC[i] == 'IN':
for j in range(i + 1, len(inC)):
inData += ' ' + inC[j]
outDataI = i
break
elif inC[i] == 'NOT' and inC[i + 1] == 'IN':
notIN = True
for j in range(i + 2, len(inC)):
inData += ' ' + inC[j]
outDataI = i
break
outData = ''
for i in range(0, outDataI):
outData += inC[i]
outData = outData.strip('(').strip(')')
inData = inData.strip()
inst = instruction()
inst.setData(inData)
inst.addFROM(self.instruction.getFROM())
q = querier()
inTable = q.execute(inst, self.data)
c1 = outData.split(',')
c2 = inst.getSELECT().split(',')
self.tables.insert(0, inTable)
index1 = -1
index2 = -1
for j in range(len(c1)):
c1[j] = c1[j].strip()
c2[j] = c2[j].strip()
newC = c1[j] + ' = ' + c2[j]
index1 = -1
index2 = -1
for i in range(len(self.tables)):
if c1[j] in self.tables[i].getAttributes():
index1 = i
if c2[j] in self.tables[i].getAttributes():
index2 = i
temp_result = Table.join(self.tables[index1],
self.tables[index2], newC)
if (notIN):
self.tables[index1] = Table.minus(
self.tables[index1], temp_result)
else:
self.tables[index1] = Table.copy(temp_result)
temp_result = self.tables[index1]
if index1 != index2:
del (self.tables[index2])
else:
c = self.__normorize(c)
c_list = c.split()
index1 = -1
index2 = -1
for i in range(len(self.tables)):
if c_list[0] in self.tables[i].getAttributes():
index1 = i
if c_list[2] in self.tables[i].getAttributes():
index2 = i
if index2 == -1:
self.tables[index1] = self.tables[index1].select(c)
temp_result = Table.copy(self.tables[index1])
else:
self.tables[index1] = Table.join(
self.tables[index1], self.tables[index2], c)
temp_result = Table.copy(self.tables[index1])
if index1 != index2:
del (self.tables[index2])
result = Table.union(result, temp_result)
if self.instruction.hasGROUP():
result = result.project(self.attributes,
self.instruction.getGROUPBY())
c = self.__normorize(self.instruction.getHAVING())
result = result.select(c)
return result
else:
if len(self.attributes) == 1 and self.attributes[0].strip() == '*':
return result
print(result)
return result.project(self.attributes)
def test_position(self):
"""position"""
self.assertRaises(ValueError, Table.position, 'badval')
self.assertEqual('North', Table.position('North').position)
self.assertEqual(0, Table.position('North').score)
def UpdateFQ2(outUV, nIF, err):
"""
Convert FQ table in outUV to nIF IFs
* outUV = output Obit UV object, defined but not instantiated
* nIF = number of desired output IFs
MUST be the same number of channels per IF
* err = Obit error/message stack
"""
################################################################
iFQTab = outUV.NewTable(Table.READONLY, "AIPS FQ", 1, err)
oFQTab = outUV.NewTable(Table.WRITEONLY, "AIPS FQ", 2, err, numIF=nIF)
# Input info
d = outUV.Desc.Dict
jlocf = d["jlocf"]
reffreq = d["crval"][jlocf]
delfreq = d["cdelt"][jlocf]
freqpix = d["crpix"][jlocf]
nchan = d["inaxes"][jlocf]
# Can use row from input table
iFQTab.Open(Table.READONLY, err)
oFQTab.Open(Table.WRITEONLY, err)
row = iFQTab.ReadRow(1, err)
iFQTab.Close(err)
# Update row for nif IFs
freqarr = []
chw = row['CH WIDTH'][0]
chwarr = []
tbw = row['TOTAL BANDWIDTH'][0] / nIF
tbwarr = []
sideband = row['SIDEBAND'][0]
sbarr = []
rxc = row['RXCODE'][0]
rxcarr = ""
for iIF in range(1, nIF + 1):
freqarr.append((iIF - freqpix) * delfreq * nchan)
chwarr.append(chw)
tbwarr.append(tbw)
sbarr.append(sideband)
rxcarr += rxc
row['IF FREQ'] = freqarr
row['CH WIDTH'] = chwarr
row['TOTAL BANDWIDTH'] = tbwarr
row['SIDEBAND'] = sbarr
row['RXCODE'] = [rxcarr]
# Write output
oFQTab.WriteRow(1, row, err)
oFQTab.Close(err)
# zap FQ old
outUV.ZapTable("AIPS FQ", 1, err)
# Copy
iFQTab = outUV.NewTable(Table.READONLY, "AIPS FQ", 2, err)
oFQTab = outUV.NewTable(Table.WRITEONLY, "AIPS FQ", 1, err)
Table.PCopy(iFQTab, oFQTab, err)
# zap FQ old
outUV.ZapTable("AIPS FQ", 2, err)
# Update
outUV.UpdateDesc(err)
OErr.printErrMsg(err, "Error converting FQ Table")
ret += "|" + str(the_vals[2])
ret += "|" + str(the_vals[3])
ret += "|" + str(the_vals[4])
ret += "|" + str(the_vals[5])
ret += "|" + str(the_vals[6])
ret += "|" + str(the_vals[7])
ret += "|"
return ret
for WhichChannel_ in ['Combined']: # ,'EM' , 'MM' , 'EE' ]:
WhichChannel = WhichChannel_
t_mc = Table()
t_mc_w = Table()
#AllSamples = [ SampleInfoType. __getattribute__( SamplesInfo[sample] , WhichChannel) for sample in SamplesInfo ]
AllSamples = dict( ( sample , SampleInfoType. __getattribute__( SamplesInfo[sample] , WhichChannel) ) for sample in SamplesInfo )
print >>org_file,'* ' + WhichChannel
if PrintCutFlowTables:
print AllSamples
print >>org_file,"** Wights"
last_column_name = ''
last_column_name_w = ''
for sampleName in sorted_samples:
sample = AllSamples[sampleName]
def UpdateSU2(outUV, nIF, err):
"""
Convert SU table in outUV to nIF IFs
* outUV = output Obit UV object, defined but not instantiated
* nIF = number of desired output IFs
* err = Obit error/message stack
"""
################################################################
# Is there an SU table?
try:
iSUTab = outUV.NewTable(Table.READONLY, "AIPS SU", 1, err)
oSUTab = outUV.NewTable(Table.WRITEONLY, "AIPS SU", 2, err, numIF=nIF)
except:
return
iSUTab.Open(Table.READONLY, err)
oSUTab.Open(Table.WRITEONLY, err)
nrow = iSUTab.Desc.Dict['nrow'] # How many rows?
for irow in range(1, nrow + 1):
row = iSUTab.ReadRow(irow, err) # Read input row
# Update row
fo = row['FREQOFF'][0]
bw = row['BANDWIDTH'][0]
iflx = row['IFLUX'][0]
qflx = row['QFLUX'][0]
uflx = row['UFLUX'][0]
vflx = row['VFLUX'][0]
lsr = row['LSRVEL'][0]
rest = row['RESTFREQ'][0]
iflxa = []
qflxa = []
uflxa = []
vflxa = []
foa = []
lsra = []
rfa = []
for i in range(0, nIF):
iflxa.append(iflx)
qflxa.append(qflx)
uflxa.append(uflx)
vflxa.append(vflx)
foa.append(fo)
lsra.append(lsr)
rfa.append(rest)
row['IFLUX'] = iflxa
row['QFLUX'] = qflxa
row['UFLUX'] = uflxa
row['VFLUX'] = vflxa
row['FREQOFF'] = foa
row['LSRVEL'] = lsra
row['RESTFREQ'] = rfa
# Write output
oSUTab.WriteRow(irow, row, err)
# end loop over rows
iSUTab.Close(err)
oSUTab.Close(err)
# zap SU old
outUV.ZapTable("AIPS SU", 1, err)
# Copy
iSUTab = outUV.NewTable(Table.READONLY, "AIPS SU", 2, err)
oSUTab = outUV.NewTable(Table.WRITEONLY, "AIPS SU", 1, err)
Table.PCopy(iSUTab, oSUTab, err)
# zap SU old
outUV.ZapTable("AIPS SU", 2, err)
# Update
outUV.UpdateDesc(err)
OErr.printErrMsg(err, "Error converting SU Table")
if not CalcWeights:
files = files_ee_weights
integrated_lumi = 4529.518
elif WhichChannel=='mm' :
files_data = { 'DoubleMuon2011':1 }
if not CalcWeights:
files = files_mm_weights
integrated_lumi = 4459.007
if not MC :
files = files_data
if CalcWeights:
files = files_xsec
t=Table()
cosThetaPlot_Name = 'costheta_%(channel)s/hCosThetaAllLepton' % {'channel':WhichChannel}
hs = THStack("hs",WhichChannel)
histos = {}
canvases = {}
print WhichChannel
print "- Wights"
for wpol_file in files.keys():
#print wpol_file
colIndex = 0
file = TFile( 'WPol_SelectedTTBars_%s.root' % wpol_file , "READ")
r = RowObject()
colName = '%(colIndex)d-%(step)s' % {'colIndex': colIndex , 'step': 'DataSet'}