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VLab Issue #5277 - HLS/TCV code for OPG 11-17-2014; fixes #5277

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Change-Id: I258b2f8c8ddb7f45b02b1035f6fa5006b9fabe1b

Former-commit-id: d20799e942 [formerly 1ae8fe99aa] [formerly 061583cd50 [formerly 0db3944372ecc381df4e8a918829530391d598db]]
Former-commit-id: 061583cd50
Former-commit-id: bc572fc945
This commit is contained in:
Sarah Pontius 2014-11-10 11:20:09 -07:00
parent 5bb52ed311
commit 853526b594
6 changed files with 1379 additions and 982 deletions
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29
cave/com.raytheon.viz.gfe/localization/gfe/userPython/procedures/CreateTCVAreaDictionary.py
View file

@ -67,34 +67,6 @@ class Procedure (SmartScript.SmartScript):
# "Downtown Miami",
# ],
#
# # Threat statements can be overriden here; anything not overriden here
# # will use the generic threat statements
# 'threatStatements': {
# # Section name: "Wind", "Storm Surge", "Flooding Rain" or "Tornado"
# "Wind": {
# # Threat level: "None", "Low", "Mod", "High" or "Extreme"
# "Extreme": {
# # tr: "nothing to see here", "recovery", "hunker down",
# # "complete preparations" or "check plans"
# "hunker down": {
# # "Make plans: " will be prepended to this
# "planning": "For chance that wind could locally reach major " +\\
# "hurricane force; enact your emergency action plan " +\\
# "accordingly",
# # "Take action: " will be prepended to this
# "action": "For extremely dangerous and life threatening wind " +\\
# "to possibly occur; failure to act may result in " +\\
# "injury or loss of life",
# # "Prepare: " will be prepended to this
# "preparation": "Aggressively for chance of devastating to " +\\
# "catastrophic wind impacts based on threat " +\\
# "assessment that considers plausible worst " +\\
# "case scenario for safety",
# },
# },
# },
# },
#
# # Potential impacts statements can be overriden here; anything not
# # overriden here will use the generic potential impacts statements
# 'potentialImpactsStatements': {
@ -151,7 +123,6 @@ TCV_AreaDictionary = {
"""
self._zoneSkeletonContents = {
'locationsAffected' : [],
'threatStatements' : {},
'potentialImpactsStatements' : {},
'infoSection' : [],
}

893
edexOsgi/com.raytheon.edex.plugin.gfe/utility/edex_static/base/textproducts/templates/product/HLSTCV_Common.py → cave/com.raytheon.viz.gfe/localization/gfe/userPython/textProducts/HLSTCV_Common.py
View file

@ -282,7 +282,7 @@ class TextProduct(GenericHazards.TextProduct):
# Set up the time range for 0-120 hours
# Create a time range from the issuanceHour out 120 hours
startTime = self._calculateStartTime(time.localtime(self._issueTime_secs))
startTime = self._calculateStartTime(time.gmtime(self._issueTime_secs))
self._timeRange = self.makeTimeRange(startTime, startTime+120*3600)
# Determine the time range list, making sure they are on hour boundaries
@ -300,21 +300,142 @@ class TextProduct(GenericHazards.TextProduct):
day = localCreationTime[2]
hour = localCreationTime[3]
# If we are more than halfway though a 6 hr period
if hour % 6 > 3:
adjust = 6 # move on to the next 6 hr block
else:
adjust = 0
# print "MATT: _calculateStartTime %d adjust = %d" % (hour % 6, adjust)
# Now "truncate" to a 6-hourly boundary and compute startTime in local Time.
hour = int (int(hour/6) * 6)
hour = int( (hour/6) * 6) + adjust
if hour > 23:
hour -= 24
elif hour < 0:
hour += 24
startTime = absTimeYMD(year, month, day, hour)
# Finally, convert back to GMT
localTime, shift = self.determineTimeShift()
startTime = startTime - shift
return startTime
def _resolution(self):
return 3
def _formatPeriod(self, period, wholePeriod=False, shiftToLocal=True, useEndTime=False,
resolution=3):
# Format period (a timeRange) resulting in
# DAY + MORNING / AFTERNOON / EVENING / OVERNIGHT.
# If wholePeriod, format FROM ... TO...
print "\nMATT Format period wholePeriod = %s, period = %s, useEndTime =%s" % (str(wholePeriod), str(period), str(useEndTime))
if period is None: return ""
if useEndTime:
startTime = period.endTime()
else:
startTime = period.startTime()
result = self._getTimeDesc(startTime, resolution, shiftToLocal)
print "MATT result = '%s'" % (result)
if wholePeriod:
endResult = self._getTimeDesc(period.endTime(), resolution, shiftToLocal)
print "MATT endResult = '%s'" % (endResult)
if result != endResult:
result=result + " TO "+ endResult
return result
def _getTimeDesc(self, startTime, resolution=3, shiftToLocal=True):
# Create phrase such as Tuesday morning
# Handle today/tonight and "this" morning/afternoon/etc..
#
print "\n\n**************Formatting Period for GMT starttime ", startTime
labels = self.Labels()["SimpleWorded"]
currentTime = self._timeRange.startTime()
print " currentTime = %s" % (repr(currentTime))
if shiftToLocal:
currentLocalTime, shift = self.determineTimeShift()
startTime = startTime + shift
currentTime = currentTime + shift
print " shift, shifted start, current", shift/3600, startTime, currentTime
hour = startTime.hour
prevDay = False
prevDay, partOfDay = self._getPartOfDay(hour, resolution)
# if prevDay:
# startTime = startTime - 24*3600
todayFlag = currentTime.day == startTime.day
if todayFlag:
if partOfDay.upper().find("MIDNIGHT")>0: todayWord = "tonight"
else: todayWord = "THIS"
weekday = todayWord
else:
weekday = labels["Weekday"][startTime.weekday()]
if partOfDay.find("<weekday>") >= 0:
result = partOfDay.replace('<weekday>', weekday)
else:
result = weekday + " " + partOfDay
print "Result = '%s'" % (result)
return result
def _getPartOfDay(self, hour, resolution):
prevDay = False
if resolution == 3:
if hour < 3:
prevDay = True
partOfDay = "early <weekday> morning"
# partOfDay = "AFTER MIDNIGHT"
elif hour < 6:
partOfDay = "early <weekday> morning"
elif hour < 9:
partOfDay = "morning"
elif hour < 12:
partOfDay = "late <weekday> morning"
elif hour < 15:
partOfDay = "early <weekday> afternoon"
elif hour < 18:
partOfDay = "late <weekday> afternoon"
elif hour < 21:
partOfDay = "early <weekday> evening"
else:
partOfDay = "late <weekday> evening"
else:
if hour < 6:
prevDay = True
# partOfDay = "AFTER MIDNIGHT"
partOfDay = "early <weekday> morning"
elif hour < 12: partOfDay = "morning"
elif hour < 18: partOfDay = "afternoon"
else: partOfDay = "evening"
return prevDay, partOfDay
###############################################################
### Sampling and Statistics related methods
def moderated_dict(self, parmHisto, timeRange, componentName):
"""
Specifies the lower percentages and upper percentages of
data to be thrown out for moderated stats.
"""
# COMMENT: This dictionary defines the low and high limit at which
# outliers will be removed when calculating moderated stats.
# By convention the first value listed is the percentage
# allowed for low values and second the percentage allowed
# for high values.
# Get Baseline thresholds
dict = SampleAnalysis.SampleAnalysis.moderated_dict(
self, parmHisto, timeRange, componentName)
# Change thresholds
dict["Wind"] = (0, 15)
dict["WindGust"] = (0, 15)
dict["pws34int"] = (0, 5)
dict["pws64int"] = (0, 5)
dict["pwsD34"] = (0, 5)
dict["pwsN34"] = (0, 5)
dict["pwsD64"] = (0, 5)
dict["pwsN64"] = (0, 5)
dict["InundationMax"] = (0, 5)
dict["InundationTiming"] = (0, 5)
return dict
def _getStatValue(self, statDict, element, method=None, dataType=None):
stats = statDict.get(element, None)
if stats is None: return None
@ -600,25 +721,44 @@ FORECASTER STEWART"""
###############################################################
### Advisory related methods
def _archiveCurrentAdvisory(self):
### Determine if all actions are canceled
allCAN = True
for vtecRecord in self._getAllVTECRecords():
action = vtecRecord['act']
#print "vtecRecord", vtecRecord
if action != "CAN":
allCAN = False
break
self._currentAdvisory["AllCAN"] = allCAN
self._currentAdvisory["CreationTime"] = self._issueTime_secs
self._currentAdvisory["Transmitted"] = False
self._currentAdvisory["StormName"] = self._getStormNameFromTCP()
self._saveAdvisory("pending", self._currentAdvisory)
def _synchronizeAdvisories(self):
pathManager = PathManagerFactory.getPathManager()
context = pathManager.getContextForSite(LocalizationType.CAVE_STATIC, self._site)
# Retrieving a directory causes synching to occur
file = pathManager.getLocalizationFile(context, self._getAdvisoryPath()).getFile()
return file
def _getLocalAdvisoryDirectoryPath(self):
file = self._synchronizeAdvisories()
path = file.getPath()
return path
def _loadLastTwoAdvisories(self):
advisoryDirectoryPath = self._getLocalAdvisoryDirectoryPath()
filenames = os.listdir(advisoryDirectoryPath)
allAdvisories = filter(lambda filename: filename[-5:] == ".json", filenames)
stormAdvisories = filter(lambda filename: self._getStormNameFromTCP() in filename,
allAdvisories)
stormAdvisories = map(lambda filename: filename[:-5], stormAdvisories)
lastTwoAdvisories = sorted(stormAdvisories)[:2]
self._previousAdvisory = None
if len(lastTwoAdvisories) >= 1:
self._previousAdvisory = self._loadAdvisory(lastTwoAdvisories[0])
self._previousPreviousAdvisory = None
if len(lastTwoAdvisories) >= 2:
self._previousPreviousAdvisory = self._loadAdvisory(lastTwoAdvisories[1])
def _loadAdvisory(self, advisoryName):
import json
self._synchronizeAdvisories()
try:
jsonDict = self._getFileContents(LocalizationType.CAVE_STATIC,
@ -630,29 +770,24 @@ FORECASTER STEWART"""
print pythonDict
# Only use transmitted advisories
if pythonDict["Transmitted"] == False:
if pythonDict["Transmitted"] == False and advisoryName != "pending":
return None
else:
return pythonDict
except Exception, e:
print "SARAH Load Exception for", self._getAdvisoryFilename(advisoryName), ":", e
print "SARAH Load Exception for %s : %s" % (self._getAdvisoryFilename(advisoryName), e)
return None
def _saveAdvisory(self, advisoryName, advisoryDict):
import json
try:
self._writeFileContents(LocalizationType.CAVE_STATIC,
self._site,
self._getAdvisoryPath() + advisoryName + ".json",
json.dumps(advisoryDict))
print "SARAH: Wrote file contents for", (self._getAdvisoryPath() + advisoryName + ".json")
except Exception, e:
print "SARAH Save Exception for", (self._getAdvisoryPath() + advisoryName + ".json"), ":", e
def _getAdvisoryPath(self):
return "gfe/tcvAdvisories/"
def _getLocalizationFile(self, loctype, siteID, filename):
pathManager = PathManagerFactory.getPathManager()
context = pathManager.getContextForSite(loctype, siteID)
localizationFile = pathManager.getLocalizationFile(context, filename)
return localizationFile
def _getFileContents(self, loctype, siteID, filename):
pathManager = PathManagerFactory.getPathManager()
context = pathManager.getContextForSite(loctype, siteID)
@ -662,20 +797,8 @@ FORECASTER STEWART"""
return fileContents
def _writeFileContents(self, loctype, siteID, filename, contents):
pathManager = PathManagerFactory.getPathManager()
context = pathManager.getContextForSite(loctype, siteID)
localizationFile = pathManager.getLocalizationFile(context, filename)
with File(localizationFile.getFile(), filename, 'w') as pythonFile:
pythonFile.write(contents)
localizationFile.save()
def _getAdvisoryFilename(self, advisoryName):
year = time.gmtime(self._issueTime_secs).tm_year
advisoryFilename = self._getAdvisoryPath() + \
self._getStormNameFromTCP().upper() + \
str(year) + \
advisoryName + \
".json"
return advisoryFilename
@ -711,7 +834,7 @@ FORECASTER STEWART"""
# Order and inclusion of GUI1 buttons
# Each entry is (name of button in GUI code, desired label on GUI)
"buttonList":[
("Next","Next"),
("Run","Run"),
("Cancel","Cancel"),
],
}
@ -725,68 +848,6 @@ FORECASTER STEWART"""
###############################################################
### TCV Statistics
def _analysisList_TCV(self):
# Sample over 120 hours beginning at current time
analysisList = [
# Wind Section
("Wind", self.vectorModeratedMax, [6]),
("WindGust", self.moderatedMax, [6]),
("WindThreat", self.mostSignificantDiscreteValue),
("pws34int", self.moderatedMax, [6]),
("pws64int", self.moderatedMax, [6]),
("pwsD34", self.moderatedMax),
("pwsN34", self.moderatedMax),
("pwsD64", self.moderatedMax),
("pwsN64", self.moderatedMax),
# Flooding Rain Section
("QPF", self.accumSum, [72]),
("FloodingRainThreat", self.mostSignificantDiscreteValue),
# Tornado Section
("TornadoThreat", self.mostSignificantDiscreteValue),
]
return analysisList
def _intersectAnalysisList_TCV(self):
# The grids for the Surge Section will be intersected with a special edit area
analysisList = [
("InundationMax", self.moderatedMax, [6]),
("InundationTiming", self.moderatedMax, [6]),
("StormSurgeThreat", self.mostSignificantDiscreteValue),
]
return analysisList
def moderated_dict(self, parmHisto, timeRange, componentName):
"""
Specifies the lower percentages and upper percentages of
data to be thrown out for moderated stats.
"""
# COMMENT: This dictionary defines the low and high limit at which
# outliers will be removed when calculating moderated stats.
# By convention the first value listed is the percentage
# allowed for low values and second the percentage allowed
# for high values.
# Get Baseline thresholds
dict = SampleAnalysis.SampleAnalysis.moderated_dict(
self, parmHisto, timeRange, componentName)
# Change thresholds
dict["Wind"] = (0, 15)
dict["WindGust"] = (0, 15)
dict["pws34int"] = (0, 5)
dict["pws64int"] = (0, 5)
dict["pwsD34"] = (0, 5)
dict["pwsN34"] = (0, 5)
dict["pwsD64"] = (0, 5)
dict["pwsN64"] = (0, 5)
dict["InundationMax"] = (0, 5)
dict["InundationTiming"] = (0, 5)
return dict
def threatKeyOrder(self):
return [None, "None", "Elevated", "Mod", "High", "Extreme"]
@ -812,50 +873,7 @@ FORECASTER STEWART"""
def _initializeAdvisories(self):
self._currentAdvisory = dict()
self._currentAdvisory['ZoneData'] = dict()
self._previousAdvisory = self._loadAdvisory("previous")
print "SARAH: loaded previous advisory =", self._previousAdvisory
self._previousPreviousAdvisory = self._loadAdvisory("previousPrevious")
print "SARAH: loaded previousPrevious advisory =", self._previousPreviousAdvisory
def _sampleTCVData(self, argDict):
# Sample the data
editAreas = self._makeSegmentEditAreas(argDict)
cwa = self._cwa()
editAreas.append((cwa, cwa))
self._sampler = self.getSampler(argDict,
(self._analysisList_TCV(), self._timeRangeList, editAreas))
intersectAreas = self._computeIntersectAreas(editAreas, argDict)
self._intersectSampler = self.getSampler(argDict,
(self._intersectAnalysisList_TCV(), self._timeRangeList, intersectAreas))
def _getTCVStats(self, argDict, segment, editAreaDict, timeRangeList):
# Get statistics for this segment
print "SARAH: issue time seconds =", self._issueTime_secs
print "SARAH: GMT issue time =", time.gmtime(self._issueTime_secs)
editArea = editAreaDict[segment]
statList = self.getStatList(self._sampler,
self._analysisList_TCV(),
timeRangeList,
editArea)
windStats = WindSectionStats(self, segment, statList, timeRangeList)
floodingRainStats = FloodingRainSectionStats(self, segment, statList, timeRangeList)
tornadoStats = TornadoSectionStats(self, segment, statList, timeRangeList)
# The surge section needs sampling done with an intersected edit area
intersectEditArea = "intersect_"+editArea
intersectStatList = self.getStatList(self._intersectSampler,
self._intersectAnalysisList_TCV(),
timeRangeList,
intersectEditArea)
stormSurgeStats = StormSurgeSectionStats(self, segment, intersectStatList, timeRangeList)
return (windStats, stormSurgeStats, floodingRainStats, tornadoStats)
self._loadLastTwoAdvisories()
def _initializeSegmentZoneData(self, segment):
# The current advisory will be populated when setting a section's stats
@ -894,10 +912,10 @@ FORECASTER STEWART"""
if combos is None:
LogStream.logVerbose("COMBINATION FILE NOT FOUND: " + self._defaultEditAreas)
return [], None
print "\nSegments from Zone Combiner", combos
#print "\nSegments from Zone Combiner", combos
# "Overlay" the forecaster-entered combinations onto the segments
segmentList = self._refineSegments(hazSegments, combos)
print "\nNew segments", segmentList
#print "\nNew segments", segmentList
# Instead of a segment being a group of zones, it will be just a single zone.
# So collapse this list of lists down to a list of zones (aka. segments)
@ -925,6 +943,7 @@ FORECASTER STEWART"""
# (We need to define self._segmentList for the mapping function
# to use)
self._segmentList = hazSegments
#print "self._segmentList = %s" % (repr(self._segmentList))
segmentMapping = map(self._findSegment, combo)
#print " segmentMapping", segmentMapping
@ -966,568 +985,6 @@ FORECASTER STEWART"""
return segment
return []
###############################################################
### TCV Statistics Classes
class SectionCommonStats():
def __init__(self, textProduct, segment):
self._textProduct = textProduct
self._segment = segment
self._initializeAdvisories()
self._maxThreat = None
def _initializeAdvisories(self):
self._currentAdvisory = self._textProduct._currentAdvisory['ZoneData'][self._segment]
self._previousAdvisory = None
# print "MATT textProduct._previousAdvisory = '%s'" % (textProduct._previousAdvisory)
if self._textProduct._previousAdvisory is not None:
self._previousAdvisory = self._textProduct._previousAdvisory['ZoneData'][self._segment]
# print "MATT textProduct._previousPreviousAdvisory = '%s'" % \
# (textProduct._previousPreviousAdvisory)
self._previousPreviousAdvisory = None
if self._textProduct._previousPreviousAdvisory is not None:
self._previousPreviousAdvisory = self._textProduct._previousPreviousAdvisory['ZoneData'][self._segment]
def _updateThreatStats(self, tr, statDict, threatGridName):
print "SARAH: updateThreatStats for", threatGridName
threatLevel = self._textProduct.getStats(statDict, threatGridName)
if threatLevel is not None:
threatLevels = self._textProduct.threatKeyOrder()
print "SARAH: threatLevel =", threatLevel
print "SARAH: maxThreat =", self._maxThreat
if self._maxThreat is None or \
threatLevels.index(threatLevel) > threatLevels.index(self._maxThreat):
print "SARAH: updating max threat to =", threatLevel
self._maxThreat = threatLevel
def _calculateHourOffset(self, targetTime):
seconds = targetTime.unixTime() - self._textProduct._issueTime_secs
hour = int(round(seconds/60/60))
if hour < 0:
hour = 0
return hour
class WindSectionStats(SectionCommonStats):
def __init__(self, textProduct, segment, statList, timeRangeList):
SectionCommonStats.__init__(self, textProduct, segment)
self._maxWind = None
self._maxGust = None
self._onset34Hour = None
self._end34Hour = None
self._onset64Hour = None
self._end64Hour = None
self._windowTS = None
self._windowHU = None
self._setStats(statList, timeRangeList)
class PwsXXintStats():
max = None
onsetHour = None
class PwsTXXStats():
onsetHour = None
endHour = None
class TimeInfo():
onsetHour = None
endHour = None
class EventsOccurring():
pwsTXXEvent = False
windXXEvent = False
def _setStats(self, statList, timeRangeList):
pws34intStats = self.PwsXXintStats()
pws64intStats = self.PwsXXintStats()
pwsT34Stats = self.PwsTXXStats()
pwsT64Stats = self.PwsTXXStats()
wind34timeInfo = self.TimeInfo()
wind64timeInfo = self.TimeInfo()
events34 = self.EventsOccurring()
events64 = self.EventsOccurring()
for period in range(len(statList)):
tr, _ = timeRangeList[period]
statDict = statList[period]
self._updateStatsForPwsXXint(tr, statDict, "pws34int", pws34intStats)
self._updateStatsForPwsXXint(tr, statDict, "pws64int", pws64intStats)
self._updateStatsForPwsTXX(tr, statDict, "pwsD34", "pwsN34", pwsT34Stats, events34, period)
self._updateStatsForPwsTXX(tr, statDict, "pwsD64", "pwsN64", pwsT64Stats, events64, period)
wind = self._textProduct._getStatValue(statDict, "Wind", "Max", self._textProduct.VECTOR())
if wind is not None:
if wind >= 34:
events34.windXXEvent = True
if wind >= 64:
events64.windXXEvent = True
else:
events64.windXXEvent = False
else:
events34.windXXEvent = False
events64.windXXEvent = False
if self._maxWind is None or wind >= self._maxWind:
self._maxWind = wind
self._updateWindTimeInfo(tr, wind34timeInfo, speed=34)
self._updateWindTimeInfo(tr, wind64timeInfo, speed=64)
windGust = self._textProduct._getStatValue(statDict, "WindGust", "Max")
if windGust is not None:
if self._maxGust is None or windGust > self._maxGust:
self._maxGust = windGust
self._updateThreatStats(tr, statDict, "WindThreat")
#Tropical Storm
onsetEndInfo = self._computeWindOnsetAndEnd(wind34timeInfo, pws34intStats, pwsT34Stats)
self._onset34Hour = onsetEndInfo.onsetHour
self._end34Hour = onsetEndInfo.endHour
nonEnding34Event = False
if events34.pwsTXXEvent and (wind34timeInfo.endHour is None or events34.windXXEvent):
nonEnding34Event = True
print "SARAH: Tropical Storm Window:"
self._windowTS = self._createWindow("Tropical Storm",
self._onset34Hour,
self._end34Hour,
nonEnding34Event)
#Hurricane
onsetEndInfo = self._computeWindOnsetAndEnd(wind64timeInfo, pws64intStats, pwsT64Stats)
self._onset64Hour = onsetEndInfo.onsetHour
self._end64Hour = onsetEndInfo.endHour
nonEnding64Event = False
if events64.pwsTXXEvent and (wind64timeInfo.endHour is None or events64.windXXEvent):
nonEnding64Event = True
print "SARAH: Hurricane Window:"
self._windowHU = self._createWindow("Hurricane",
self._onset64Hour,
self._end64Hour,
nonEnding64Event)
self._currentAdvisory["WindThreat"] = self._maxThreat
self._currentAdvisory["WindForecast"] = self._maxWind
def _updateStatsForPwsXXint(self, tr, statDict, gridName, pwsXXintStats):
pwsXXint = self._textProduct._getStatValue(statDict, gridName, "Max")
if pwsXXint is not None:
if pwsXXintStats.max is None or pwsXXint > pwsXXintStats.max:
pwsXXintStats.max = pwsXXint
pwsXXintStats.onsetHour = self._calculateHourOffset(tr.startTime())
print "SARAH: Window Debug: pwsXXintStats gridName =", gridName
print "SARAH: Window Debug: pwsXXintStats pwsXXint =", pwsXXint
print "SARAH: Window Debug: pwsXXintStats tr =", tr
print "SARAH: Window Debug: pwsXXintStats onsetHour =", pwsXXintStats.onsetHour
def _updateStatsForPwsTXX(self, tr, statDict, dayGridName, nightGridName, pwsTXXStats, events, period):
# Convert this time to locatime
trStartLocalHour = time.localtime(tr.startTime().unixTime()).tm_hour
dayStartHour = self._textProduct.DAY()
nightStartHour = self._textProduct.NIGHT()
print "MATT _updateStatsForPwsTXX = %s localStartHr = %d" % (repr(tr),
trStartLocalHour)
print "MATT dayStart = %s nightStart = %s" % (repr(dayStartHour),
repr(nightStartHour))
pwsDXX = self._textProduct._getStatValue(statDict, dayGridName, "Max")
pwsNXX = self._textProduct._getStatValue(statDict, nightGridName, "Max")
maxPws = None
print "MATT pwsDXX = %s pwsNXX = %s " % (repr(pwsDXX), repr(pwsNXX))
# if pwsDXX is not None:
# print "SARAH: Window Debug: pwsTXXStats DAY"
# maxPws = pwsDXX
# elif pwsNXX is not None:
# print "SARAH: Window Debug: pwsTXXStats NIGHT"
# maxPws = pwsNXX
# SARAH - if we are close to the end of a day/night period, the first
# period we would really want to consider would be the next period.
# This is hard-coded to 3 hours to prove the concept.
if (nightStartHour >= trStartLocalHour and \
(nightStartHour - trStartLocalHour) <= 3) or pwsDXX is None:
print "MATT: Window Debug: pwsTXXStats NIGHT"
maxPws = pwsNXX
elif (dayStartHour >= trStartLocalHour and \
(dayStartHour - trStartLocalHour) <= 3) or pwsNXX is None:
print "MATT: Window Debug: pwsTXXStats DAY"
maxPws = pwsDXX
threshold34index = 0
threshold64index = 1
if maxPws is not None:
if "64" in dayGridName:
index = threshold64index
else: #if "34"
index = threshold34index
threshold = None
thresholds = self.windSpdProb_thresholds()
if period == 0:
(thresholdLow, thresholdHigh) = thresholds[period][index]
threshold = thresholdLow
else:
if period >= 10: # SARAH: TODO - remove???
period = 9
threshold = thresholds[period][index]
if maxPws > threshold:
events.pwsTXXEvent = True
configuredEndTime = self._getCorrespondingConfiguredTime(tr.endTime(), isOnset = False)
pwsTXXStats.endHour = self._calculateHourOffset(configuredEndTime)
print "SARAH: Window Debug: pwsTXXStats dayGridName =", dayGridName
print "SARAH: Window Debug: pwsTXXStats nightGridName =", nightGridName
print "SARAH: Window Debug: pwsTXXStats original tr =", tr
print "SARAH: Window Debug: pwsTXXStats maxPws =", maxPws
print "SARAH: Window Debug: pwsTXXStats endHour =", pwsTXXStats.endHour
if pwsTXXStats.onsetHour is None:
configuredStartTime = self._getCorrespondingConfiguredTime(tr.startTime(), isOnset = True)
pwsTXXStats.onsetHour = self._calculateHourOffset(configuredStartTime)
print "SARAH: Window Debug: pwsTXXStats dayGridName =", dayGridName
print "SARAH: Window Debug: pwsTXXStats nightGridName =", nightGridName
print "SARAH: Window Debug: pwsTXXStats original tr =", tr
print "SARAH: Window Debug: pwsTXXStats maxPws =", maxPws
print "SARAH: Window Debug: pwsTXXStats onsetHour =", pwsTXXStats.onsetHour
else:
events.pwsTXXEvent = False
def _getCorrespondingConfiguredTime(self, gmtTime, isOnset):
dayStartHour = self._textProduct.DAY()
nightStartHour = self._textProduct.NIGHT()
print "SARAH: gmtTime =", gmtTime
gmtSeconds = gmtTime.unixTime()
localTime = time.localtime(gmtSeconds)
print "SARAH: localTime =", localTime
localHour = localTime.tm_hour
print "SARAH: localHour =", localHour
if isOnset:
print "SARAH: Window Debug: Adjusting start time"
else:
print "SARAH: Window Debug: Adjusting end time"
newHour = None
if localHour < dayStartHour:
if isOnset:
# Subtract 24 hours to get to the previous day
newGmtTime = gmtTime - 24*60*60
gmtSeconds = newGmtTime.unixTime()
localTime = time.localtime(gmtSeconds)
print "SARAH: new localTime =", localTime
newHour = nightStartHour
else:
newHour = dayStartHour
elif dayStartHour <= localHour and localHour < nightStartHour:
if isOnset:
newHour = dayStartHour
else:
newHour = nightStartHour
else:
if isOnset:
newHour = nightStartHour
else:
# Add 24 hours to get to the next day
newGmtTime = gmtTime + 24*60*60
gmtSeconds = newGmtTime.unixTime()
localTime = time.localtime(gmtSeconds)
print "SARAH: new localTime =", localTime
newHour = dayStartHour
print "SARAH: new localHour =", localHour
newTimeTuple = localTime[:3] + (newHour,) + localTime[4:]
import calendar
seconds = calendar.timegm(newTimeTuple)
adjustedGmtTime = AbsTime(seconds)
print "SARAH: new local time =", adjustedGmtTime
seconds = time.mktime(newTimeTuple)
adjustedGmtTime = AbsTime(seconds)
print "SARAH: new GMT time =", adjustedGmtTime
return adjustedGmtTime
# SARAH - we don't want this here. Use the inherited version from the
# VectorRelatedPhrases module instead. This way, changes only need to be
# made in one place.
def windSpdProb_thresholds(self):
return [
((45.0, 80.0), (25.0, 60.0)), # Per 1
(35.0, 20.0), # Per 2
(30.0, 15.0), # Per 3
(25.0, 12.5), # Per 4
(22.5, 10.0), # Per 5
(20.0, 8.0), # Per 6
(17.5, 7.0), # Per 7
(15.0, 6.0), # Per 8
(12.5, 5.0), # Per 9
(10.0, 4.0), # Per 10
]
def _updateWindTimeInfo(self, tr, timeInfo, speed):
if self._maxWind is not None and self._maxWind >= speed:
timeInfo.endHour = self._calculateHourOffset(tr.endTime())
print "SARAH: Window Debug: timeInfo speed =", speed
print "SARAH: Window Debug: timeInfo maxWind =", self._maxWind
print "SARAH: Window Debug: timeInfo tr =", tr
print "SARAH: Window Debug: timeInfo endHour =", timeInfo.endHour
if timeInfo.onsetHour is None:
timeInfo.onsetHour = self._calculateHourOffset(tr.startTime())
print "SARAH: Window Debug: timeInfo speed =", speed
print "SARAH: Window Debug: timeInfo maxWind =", self._maxWind
print "SARAH: Window Debug: timeInfo tr =", tr
print "SARAH: Window Debug: timeInfo onsetHour =", timeInfo.onsetHour
def _computeWindOnsetAndEnd(self, windTimeInfo, pwsXXintStats, pwsTXXStats):
onsetEndInfo = self.TimeInfo()
print "SARAH: Window Debug: windTimeInfo.onsetHour =", windTimeInfo.onsetHour
print "SARAH: Window Debug: pwsTXXStats.onsetHour =", pwsTXXStats.onsetHour
print "SARAH: Window Debug: pwsXXintStats.onsetHour =", pwsXXintStats.onsetHour
print "SARAH: Window Debug: windTimeInfo.endHour =", windTimeInfo.endHour
print "SARAH: Window Debug: pwsTXXStats.endHour =", pwsTXXStats.endHour
if windTimeInfo.onsetHour is None:
# print "SARAH: Window Debug: windTimeInfo.onsetHour was None; using pwsTXXStats"
# windTimeInfo.onsetHour = pwsTXXStats.onsetHour
# print "SARAH: Window Debug: pwsTXXStats.onsetHour =", pwsTXXStats.onsetHour
# Short-circuit this logic as a temporary measure. Basically, do
# not include a window if the deterministic winds do not support
# a particular threshold
onsetEndInfo.endHour = None
if windTimeInfo.onsetHour is not None and pwsXXintStats.onsetHour is not None:
print "SARAH: Window Debug: windTimeInfo.onsetHour & pwsXXintStats.onsetHour not None; taking min"
onsetEndInfo.onsetHour = min(windTimeInfo.onsetHour, pwsXXintStats.onsetHour)
print "SARAH: Window Debug: min onsetHour =", onsetEndInfo.onsetHour
if onsetEndInfo.onsetHour is not None:
if windTimeInfo.endHour is None:
print "SARAH: Window Debug: windTimeInfo.endHour was None; using pwsTXXStats"
onsetEndInfo.endHour = pwsTXXStats.endHour
print "SARAH: Window Debug: pwsTXXStats.endHour =", pwsTXXStats.endHour
elif pwsTXXStats.endHour is not None:
print "SARAH: windendHour =", windTimeInfo.endHour
print "SARAH: probendHour =", pwsTXXStats.endHour
onsetEndInfo.endHour = int(round(self._textProduct.average(windTimeInfo.endHour, pwsTXXStats.endHour)))
print "SARAH: endHour =", onsetEndInfo.endHour
return onsetEndInfo
def _createWindow(self, windowName, onsetHour, endHour, nonEndingEvent):
window = "Window for " + windowName + " force winds: "
print "SARAH: window stats:"
print "SARAH: onsetHour =", onsetHour
print "SARAH: endHour =", endHour
print "SARAH: window nonEndingEvent =", nonEndingEvent
if onsetHour is None:
# SARAH - we do not want a statement of a non-existent window
# window += "None"
window = None
else:
startTime = AbsTime(self._textProduct._issueTime_secs + onsetHour*60*60)
if endHour is not None:
endTime = AbsTime(self._textProduct._issueTime_secs + endHour*60*60)
windowPeriod = self._textProduct.makeTimeRange(startTime, endTime)
else:
windowPeriod = self._textProduct.makeTimeRange(startTime, startTime + 1)
print "SARAH: window period =", windowPeriod
startTimeDescriptor = ""
if onsetHour >= 18:
startTimeDescriptor = self._textProduct._formatPeriod(windowPeriod, resolution = 6)
elif 6 <= onsetHour and onsetHour < 18:
startTimeDescriptor = self._textProduct._formatPeriod(windowPeriod, resolution = 3)
if endHour is None or nonEndingEvent:
if len(startTimeDescriptor) != 0:
window += "Begins " + startTimeDescriptor
else:
window += "None"
else:
connector = "through "
endTimeDescriptor = "the next few hours"
if endHour >= 18:
endTimeDescriptor = self._textProduct._formatPeriod(windowPeriod,
useEndTime = True,
resolution = 6)
elif 6 <= endHour and endHour < 18:
endTimeDescriptor = self._textProduct._formatPeriod(windowPeriod,
useEndTime = True,
resolution = 3)
if len(startTimeDescriptor) != 0:
connector = " " + connector
window += startTimeDescriptor + connector + endTimeDescriptor
return window
class StormSurgeSectionStats(SectionCommonStats):
def __init__(self, textProduct, segment, intersectStatList, timeRangeList):
SectionCommonStats.__init__(self, textProduct, segment)
self._inundationMax = None
self._onsetSurgeHour = None
self._endSurgeHour = None
self._windowSurge = None
self._setStats(intersectStatList, timeRangeList)
def _setStats(self, statList, timeRangeList):
phishStartTime = None
phishEndTime = None
possibleStop = 0
# print "*"*100
# print "MATT phishStartTime = %s phishEndTime = %s possibleStop = %d" % (str(phishStartTime), str(phishEndTime), possibleStop)
for period in range(len(statList)):
tr, _ = timeRangeList[period]
statDict = statList[period]
phishPeak = self._textProduct._getStatValue(statDict, "InundationMax", "Max")
if phishPeak is not None:
if self._inundationMax is None or phishPeak > self._inundationMax:
self._inundationMax = phishPeak
curPhish = self._textProduct._getStatValue(statDict, "InundationTiming", "Max")
# print "MATT tr = %s" % (repr(tr))
# print "MATT curPhish = '%s' possibleStop = %d" % (str(curPhish), possibleStop)
# print "MATT phishStartTime = %s phishEndTime = %s" % (str(phishStartTime), str(phishEndTime))
if curPhish is not None and possibleStop != 2:
if curPhish > 0:
if phishStartTime is None:
phishStartTime = tr.startTime()
possibleStop = 0
phishEndTime = None
elif phishStartTime is not None:
possibleStop += 1
if phishEndTime is None:
phishEndTime = tr.startTime()
self._updateThreatStats(tr, statDict, "StormSurgeThreat")
self._windowSurge = "Window for Storm Surge Inundation: "
if phishStartTime is None:
self._windowSurge += "None"
else:
self._onsetSurgeHour = self._calculateHourOffset(phishStartTime)
startTime = AbsTime(self._textProduct._issueTime_secs + self._onsetSurgeHour*60*60)
# print "MATT surge startTime = %s self._onsetSurgeHour = %s " % (repr(startTime), self._onsetSurgeHour)
if phishEndTime is not None:
self._endSurgeHour = self._calculateHourOffset(phishEndTime)
endTime = AbsTime(self._textProduct._issueTime_secs + self._endSurgeHour*60*60)
windowPeriod = self._textProduct.makeTimeRange(startTime, endTime)
else:
windowPeriod = self._textProduct.makeTimeRange(startTime, startTime + 1)
print "SARAH: window period =", windowPeriod
startTimeDescriptor = self._textProduct._formatPeriod(windowPeriod)
if phishEndTime is None:
self._windowSurge += "Begins " + startTimeDescriptor
elif phishStartTime == phishEndTime:
self._windowSurge += startTimeDescriptor
else:
endTimeDescriptor = self._textProduct._formatPeriod(windowPeriod, useEndTime = True)
if self._onsetSurgeHour > 12:
self._windowSurge += startTimeDescriptor +\
" through " +\
endTimeDescriptor
else:
self._windowSurge += "through " + endTimeDescriptor
self._currentAdvisory["StormSurgeThreat"] = self._maxThreat
if self._inundationMax is not None:
# Round so we don't store values like 1.600000023841858
self._currentAdvisory["StormSurgeForecast"] = \
int(self._inundationMax * 10.0) / 10.0
class FloodingRainSectionStats(SectionCommonStats):
def __init__(self, textProduct, segment, statList, timeRangeList):
SectionCommonStats.__init__(self, textProduct, segment)
self._sumAccum = None
self._setStats(statList, timeRangeList)
def _setStats(self, statList, timeRangeList):
for period in range(len(statList)):
tr, _ = timeRangeList[period]
statDict = statList[period]
stats = self._textProduct.getStats(statDict, "QPF")
if stats is not None:
for (value, tr) in stats:
if value is not None:
if self._sumAccum is None:
self._sumAccum = value
else:
self._sumAccum += value
self._updateThreatStats(tr, statDict, "FloodingRainThreat")
self._currentAdvisory["FloodingRainThreat"] = self._maxThreat
if self._sumAccum is not None:
# Round so that we don't end up with stats like 4.03143835067749
self._currentAdvisory["FloodingRainForecast"] = \
self._textProduct.round(self._sumAccum, "Nearest", 0.5)
class TornadoSectionStats(SectionCommonStats):
def __init__(self, textProduct, segment, statList, timeRangeList):
SectionCommonStats.__init__(self, textProduct, segment)
self._setStats(statList, timeRangeList)
def _setStats(self, statList, timeRangeList):
for period in range(len(statList)):
tr, _ = timeRangeList[period]
statDict = statList[period]
self._updateThreatStats(tr, statDict, "TornadoThreat")
self._currentAdvisory["TornadoThreat"] = self._maxThreat
import Tkinter
class Common_Dialog(Dialog):
def __init__(self, parent, title, infoDict=None):

4
cave/com.raytheon.viz.gfe/localization/gfe/userPython/textUtilities/regular/TextUtils.py
View file

@ -781,8 +781,8 @@ class TextUtils:
self._debugDict[name] = count
# Print the traceback message
print "\n\tDEBUG:",name, "in", file, "at line",\
lineno,"Class=", self.__class__, count
print "DEBUG: %s in %s at line %d" % (name, file, lineno)
print "DEBUG: Class = %s %d\n\n" % (self.__class__, count)
#print "Super classes:",self.__class__.__bases__
# If there is a message, print that too

35
edexOsgi/com.raytheon.edex.plugin.gfe/utility/edex_static/base/textproducts/preferences/configureTextProducts.py
View file

@ -1,19 +1,19 @@
##
# This software was developed and / or modified by Raytheon Company,
# pursuant to Contract DG133W-05-CQ-1067 with the US Government.
#
# U.S. EXPORT CONTROLLED TECHNICAL DATA
# pursuant to Contract DG133W-05-CQ-1067 with the US Government.
#
# U.S. EXPORT CONTROLLED TECHNICAL DATA
# This software product contains export-restricted data whose
# export/transfer/disclosure is restricted by U.S. law. Dissemination
# to non-U.S. persons whether in the United States or abroad requires
# an export license or other authorization.
#
# Contractor Name: Raytheon Company
# Contractor Address: 6825 Pine Street, Suite 340
# Mail Stop B8
# Omaha, NE 68106
# 402.291.0100
#
# Contractor Name: Raytheon Company
# Contractor Address: 6825 Pine Street, Suite 340
# Mail Stop B8
# Omaha, NE 68106
# 402.291.0100
#
# See the AWIPS II Master Rights File ("Master Rights File.pdf") for
# further licensing information.
##
@ -51,8 +51,9 @@ DirectFileToProductMapping = {
'PublicMarine_EA_Site_MultiPil_Definition': 'AFD',
'PublicMarineFireWx_EA_Site_MultiPil_Definition': 'AFD',
'FireWxZones_EA_Site_MultiPil_Definition': 'RFW',
'MarineZones_EA_Site_MultiPil_Definition': ['CFW', 'MWW'],
'MarineZones_EA_Site_MultiPil_Definition': 'MWW',
'PublicZones_EA_Site_MultiPil_Definition': ['NPW','WSW','CFW','FFA','AQA'],
'Hazard_TCV': 'TCV',
'Hazard_HLS': 'HLS',
}
@ -62,20 +63,19 @@ NWSProducts = ['ADR', 'AFD', 'AFM', 'AQA', 'AVA', 'AVW', 'CAE', 'CCF', 'CDW', 'C
'CFW', 'CWF', 'EQR', 'EQW', 'ESF', 'EVI', 'FFA', 'FRW', 'FWF',
'FWM', 'FWS', 'GLF', 'HLS', 'HMW', 'HWO', 'LAE', 'LEW', 'MWS',
'MVF', 'NOW', 'NPW', 'NSH', 'NUW', 'OFF', 'PFM', 'PNS', 'RFD',
'RFW', 'RHW', 'SAF', 'SFT', 'SPS', 'SPW', 'SRF', 'TOE', 'VOW',
'WCN', 'WSW', 'ZFP', 'MWW']
'RFW', 'RHW', 'SAF', 'SFT', 'SPS', 'SPW', 'SRF', 'TCV', 'TOE',
'VOW', 'WCN', 'WSW', 'ZFP', 'MWW']
#Templated files. Named with "Product" in them, will be replaced with the
#actual product name. Dictionary contains the template filename, list
#contains the products to be generated (e.g., AFM). These products
#follow the Baseline, Region, Site technique.
templateProds= ['AFM', 'ZFP', 'CCF', 'CWF', 'CWF_Pacific', 'FWF',
'FWFTable', 'FWM', 'GLF', 'MVF', 'NSH', 'PFM', 'SFT', 'SRF', 'OFF', 'AFD',
'Hazard_HLS']
templateProdsWsaf= ['AFM', 'ZFP', 'CCF', 'CWF', 'CWF_Pacific', 'FWF',
templateProds= ['AFM', 'ZFP', 'CCF', 'CWF', 'CWF_Pacific', 'FWF', 'HLS',
'FWFTable', 'FWM', 'GLF', 'MVF', 'NSH', 'PFM', 'SFT', 'SRF', 'OFF', 'AFD']
templateProdsWsaf= ['AFM', 'ZFP', 'CCF', 'CWF', 'CWF_Pacific', 'FWF', 'HLS',
'FWFTable', 'FWM', 'GLF', 'MVF', 'NSH', 'PFM', 'SFT', 'SRF', 'OFF', 'AFD', 'SAF',
'FWS', 'Hazard_HLS']
'FWS', 'Hazard_TCV', 'Hazard_HLS']
templateProds_minus_HLS = ['AFM', 'ZFP', 'CCF', 'CWF', 'CWF_Pacific', 'FWF',
'FWFTable', 'FWM', 'GLF', 'MVF', 'NSH', 'PFM', 'SFT', 'SRF', 'OFF', 'AFD']
TemplatedProducts = {
@ -85,3 +85,4 @@ TemplatedProducts = {
'Product_Region_Overrides': templateProdsWsaf,
'Product_Site_Overrides': templateProdsWsaf,
}

455
edexOsgi/com.raytheon.edex.plugin.gfe/utility/edex_static/base/textproducts/templates/product/HLS.py
View file

@ -20,20 +20,20 @@ class TextProduct(HLSTCV_Common.TextProduct):
Definition["outputFile"] = "{prddir}/TEXT/HLS.txt"
Definition["database"] = "Official" # Source database
Definition["debug"] = 1
Definition["mapNameForCombinations"] = "Zones_<site>"
Definition["defaultEditAreas"] = "EditAreas_PublicMarine_<site>"
Definition["showZoneCombiner"] = 1 # 1 to cause zone combiner to display
Definition["mapNameForCombinations"] = "Zones_MFL"
Definition["defaultEditAreas"] = "Combinations_HLS_MFL"
Definition["showZoneCombiner"] = 0 # 1 to cause zone combiner to display
Definition["productName"] = "LOCAL STATEMENT"
Definition["fullStationID" ] = "<fullStationID>"
Definition["wmoID" ] = "<wmoID>"
Definition["wfoCityState" ] = "<wfoCityState>"
Definition["pil" ] = "<pil>"
Definition["textdbPil" ] = "<textdbPil>"
Definition["awipsWANPil" ] = "<awipsWANPil>"
Definition["site"] = "<site>"
Definition["wfoCity"] = "<wfoCity>"
Definition["fullStationID" ] = "KMFL"
Definition["wmoID" ] = "WTUS82"
Definition["wfoCityState" ] = "MIAMI FL"
Definition["pil" ] = "HLSMIA"
Definition["textdbPil" ] = "MIAHLSMIA"
Definition["awipsWANPil" ] = "KMFLHLSMIA"
Definition["site"] = "MFL"
Definition["wfoCity"] = "MIAMI"
Definition["areaName"] = "" #optional area name for product
Definition["areaDictionary"] = "AreaDictionary"
@ -173,13 +173,16 @@ class TextProduct(HLSTCV_Common.TextProduct):
analysisList = [
# Wind Section
("WindThreat", self.rankedDiscreteValue),
("WindThreat", self.mostSignificantDiscreteValue),
# Flooding Rain Section
("QPFtoFFGRatio", self.moderatedMax, [6]),
("FloodingRainThreat", self.rankedDiscreteValue),
("FloodingRainThreat", self.mostSignificantDiscreteValue),
# Tornado Section
("TornadoThreat", self.rankedDiscreteValue),
("TornadoThreat", self.mostSignificantDiscreteValue),
]
return analysisList
@ -198,6 +201,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
analysisList = [
("InundationMax", self.moderatedMax, [6]),
("StormSurgeThreat", self.rankedDiscreteValue),
("StormSurgeThreat", self.mostSignificantDiscreteValue),
]
return analysisList
@ -223,7 +227,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
if self._ImpactsAnticipated:
includedImpacts = sorted(self._IncludedImpacts, key=self._impactsKeyFunction)
for ((_, sectionName), _) in includedImpacts:
print "SARAH: adding section", sectionName
print "SARAH: adding section = '%s'" % (sectionName)
partsList.append(sectionName)
partsList.append('preparednessSection')
@ -249,7 +253,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
return int(indexStr)
def _ugcHeader(self, productDict, productSegmentGroup, productSegment):
self._ugcs = self._allAreas()
self._ugcs = self._allAreas()
productDict['ugcCodes'] = self._formatUGC_entries()
self._ugcHeader_value = self._tpc.formatUGCs(self._ugcs, self._expireTime)
productDict['ugcHeader'] = self._ugcHeader_value
@ -334,7 +338,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there is only one impact across the entire CWA, and it is the max
if impactMax != "none" and impactMin == impactMax and inputThreatDominant != "None":
sectionDict['impactRange'] = "Prepare for " + impactMax + " damage across " + self._cwa() + "."
sectionDict['impactRange'] = "Prepare for " + impactMax + " damage across " + self._cwa_descriptor() + "."
# Handle the case where the impacts are not the same across the entire CWA
else:
sectionDict['variedImpacts'] = True
@ -344,14 +348,27 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there are additional areas
if impactRange != impactMax:
sectionDict['additionalImpactRange'].append("Prepare for " +
impactRange +
" damage across " +
self._frame("ENTER AREA DESCRIPTION") + ".")
curPhrase = "Prepare for %s damage across %s." % \
(impactRange, self._frame("ENTER AREA DESCRIPTION"))
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
# If there is no impact across more than one half the area, include a statement for that as well
if inputThreatDominant == "None":
sectionDict['additionalImpactRange'].append("Elsewhere across " + self._cwa() + ", little to no impact is anticipated.")
curPhrase = "Elsewhere across " + self._cwa_descriptor() + \
", little to no impact is anticipated."
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
productDict['windSection'] = sectionDict
@ -384,7 +401,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
sectionDict['impactRange'] = "Prepare for " + \
lifeThreatening + impactMax + \
" damage in surge prone areas of " + self._cwa() + ", with the greatest impacts " + \
" damage in surge prone areas of " + self._cwa_descriptor() + ", with the greatest impacts " + \
self._frame("ENTER AREA DESCRIPTION") + "."
sectionDict['impactLib'] = self._getPotentialImpactsStatements("Storm Surge", self._impactCategoryToThreatLevel(impactMax))
@ -414,20 +431,40 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there are additional life-threatening surge areas
if impactRange != impactMax and impactRange != impactMin:
sectionDict['additionalImpactRange'].append("Brace for " +
lifeThreatening + impactRange +
" damage " + self._frame("ENTER AREA DESCRIPTION"))
curPhrase = "Brace for %s%s damage across %s." % \
(lifeThreatening, impactRange, self._frame("ENTER AREA DESCRIPTION"))
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
# If there are additional areas
if impactRangeRest != impactMax:
sectionDict['additionalImpactRange'].append("Prepare for " +
impactRangeRest +
" damage from storm surge " + self._frame("ENTER AREA DESCRIPTION"))
curPhrase = "Prepare for %s damage from storm surge across %s." % \
(impactRangeRest, self._frame("ENTER AREA DESCRIPTION"))
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
# If there is no impact across more than one half the area, include a statement for that as well
if inputThreatDominant == "None":
sectionDict['additionalImpactRange'].append("Elsewhere across " + self._cwa() + ", little to no impact is anticipated.")
curPhrase = "Elsewhere across " + self._cwa_descriptor() + \
", little to no impact is anticipated."
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
productDict['surgeSection'] = sectionDict
def _floodingRainSection(self, productDict, productSegmentGroup, productSegment):
@ -443,6 +480,9 @@ class TextProduct(HLSTCV_Common.TextProduct):
impactRange = self._samplingDict['FloodingRainThreat']['impactRange']
inputThreatDominant = self._samplingDict['FloodingRainThreat']['inputThreatDominant']
self.debug_print("In _floodingRainSection", 1)
self.debug_print("_samplingDict = %s" % (repr(self._samplingDict['FloodingRainThreat'])), 1)
# Test the simplest case first
if impactMin == "none" and impactMax == "none":
sectionDict['impactRange'] = impactRange
@ -452,7 +492,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there is only one impact across the entire CWA, and it is the max
if impactMax != "none" and impactMin == impactMax and inputThreatDominant != "None":
sectionDict['impactRange'] = "Prepare for " + impactMax + " flooding across " + self._cwa() + "."
sectionDict['impactRange'] = "Prepare for " + impactMax + " flooding across " + self._cwa_descriptor() + "."
# Handle the case where the impacts are not the same across the entire CWA
else:
sectionDict['variedImpacts'] = True
@ -462,14 +502,27 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there are additional areas
if impactRange != impactMax:
sectionDict['additionalImpactRange'].append("Prepare for " +
impactRange +
" flooding impacts " +
self._frame("ENTER AREA DESCRIPTION") + ".")
curPhrase = "Prepare for %s flooding impacts across %s." % \
(impactRange, self._frame("ENTER AREA DESCRIPTION"))
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
# If there is no impact across more than one half the area, include a statement for that as well
if inputThreatDominant == "None":
sectionDict['additionalImpactRange'].append("Elsewhere across " + self._cwa() + ", little to no impact is anticipated.")
curPhrase = "Elsewhere across " + self._cwa_descriptor() + \
", little to no impact is anticipated."
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
productDict['floodingRainSection'] = sectionDict
@ -517,7 +570,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there is only one impact across the entire CWA, and it is the max
if impactMax != "none" and impactMin == impactMax and inputThreatDominant != "None":
sectionDict['impactRange'] = "Prepare for " + impactMax + " damage across " + self._cwa() + "."
sectionDict['impactRange'] = "Prepare for " + impactMax + " damage across " + self._cwa_descriptor() + "."
# Handle the case where the impacts are not the same across the entire CWA
else:
sectionDict['variedImpacts'] = True
@ -527,14 +580,27 @@ class TextProduct(HLSTCV_Common.TextProduct):
# If there are additional areas
if impactRange != impactMax:
sectionDict['additionalImpactRange'].append("Prepare for " +
impactRange +
" damage " +
self._frame("ENTER AREA DESCRIPTION") + ".")
curPhrase = "Prepare for %s damage across %s." % \
(impactRange, self._frame("ENTER AREA DESCRIPTION"))
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
# If there is no impact across more than one half the area, include a statement for that as well
if inputThreatDominant == "None":
sectionDict['additionalImpactRange'].append("Elsewhere across " + self._cwa() + ", little to no impact is anticipated.")
curPhrase = "Elsewhere across " + self._cwa_descriptor() + \
", little to no impact is anticipated."
# If this phrase is not already part of the additional impacts
if curPhrase not in sectionDict['additionalImpactRange']:
# Add it now
sectionDict['additionalImpactRange'].append(curPhrase)
productDict['tornadoSection'] = sectionDict
@ -565,7 +631,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
actionsDict['title'] = "Other Preparedness Information"
import TCVDictionary
actionsDict['actions'] = TCVDictionary.OtherPreparednessActions
actionsDict['actions'] = TCVDictionary.OtherPreparednessActions[self._GeneralOnsetTime]
productDict['otherPreparednessActions'] = actionsDict
@ -581,15 +647,15 @@ class TextProduct(HLSTCV_Common.TextProduct):
def _nextUpdate(self, productDict, productSegmentGroup, productSegment):
if self._NextUpdate == "LastIssuance" or not self._ImpactsAnticipated:
productDict['nextUpdate'] = "As it pertains to this event...this will be the last local statement issued by the National Weather Service in " + \
self._cwa() + \
self._wfoCityState + \
" regarding the effects of tropical cyclone hazards upon the area."
elif self._NextUpdate == "Conditions":
productDict['nextUpdate'] = "The next local statement will be issued by the National Weather Service in " + \
self._cwa() + \
self._wfoCityState + \
" as conditions warrant."
elif self._NextUpdate == "Enter":
productDict['nextUpdate'] = "The next local statement will be issued by the National Weather Service in " + \
self._cwa() + \
self._wfoCityState + \
" around " + self._NextUpdate_entry.strip() + ", or sooner if conditions warrant."
def _getPotentialImpactsStatements(self, elementName, maxThreat):
@ -621,6 +687,10 @@ class TextProduct(HLSTCV_Common.TextProduct):
if error is not None:
return error
# Determine time ranges
self._initializeTimeVariables(argDict)
self._determineTimeRanges(argDict)
error = self._initializeStormInformation()
if error is not None:
return error
@ -629,41 +699,25 @@ class TextProduct(HLSTCV_Common.TextProduct):
if self._stormName is None or self._stormName.strip() == "":
return "Could not determine the storm name"
self._loadLastTwoAdvisories()
if self._previousAdvisory is None:
return "A TCV must be transmitted before an HLS can be run"
self._initializeHeadlines()
self._initializeHazardsTable(argDict)
self._determineHazardStates()
# Determine time ranges
self._initializeTimeVariables(argDict)
self._determineTimeRanges(argDict)
# Sample the data
self._initializeSamplingDict()
previousAdvisory = self._loadAdvisory("previous")
if previousAdvisory is not None:
self._sampleTCVAdvisory(previousAdvisory)
else:
self._segmentList = self._determineSegments()
print "Segment Information: ", self._segmentList, "\n\n"
if len(self._segmentList) == 0:
return "NO HAZARDS TO REPORT"
if self._ImpactsAnticipated:
# Sample the data
self._initializeSamplingDict()
self._initializeAdvisories()
self._sampleTCVData(argDict)
for segment in self._segmentList:
self._initializeSegmentZoneData(segment)
self._getTCVStats(argDict, segment, self._editAreaDict, self._timeRangeList)
self._sampleTCVAdvisory(self._currentAdvisory)
self._sampleHLSData(argDict)
for threatName in ['WindThreat', 'StormSurgeThreat', 'FloodingRainThreat', 'TornadoThreat']:
self._setHazardImpactCategories(threatName)
self._sampleHLSData(argDict)
for threatName in ['WindThreat', 'StormSurgeThreat', 'FloodingRainThreat', 'TornadoThreat']:
self._setHazardImpactCategories(threatName)
# Create the product dictionary and format it to create the output
productDict = self._createProductDictionary()
productOutput = self._formatProductDictionary(productDict)
@ -672,16 +726,14 @@ class TextProduct(HLSTCV_Common.TextProduct):
def _determineHazardStates(self):
hazardTable = self._argDict["hazards"]
hazardsList = hazardTable.getHazardList(self._allAreas())
self._currentHazardsList = []
self._changesHazardsList = []
for hazard in hazardsList:
if hazard['act'] == 'CON':
self._currentHazardsList.append(hazard)
else:
for hazard in self._previousAdvisory["HazardsForHLS"]:
print "SARAH DEBUG Hazard: %s" % (repr(hazard))
if hazard['act'] != 'CON':
self._changesHazardsList.append(hazard)
self._currentHazardsList.append(hazard)
###############################################################
### Sampling and Statistics related methods
@ -698,18 +750,24 @@ class TextProduct(HLSTCV_Common.TextProduct):
self._cwa())
for period in range(len(statList)):
self.debug_print("=" * 100, 1)
self.debug_print("In _sampleHLSData for period %s (%s)" % \
(period, repr(self._timeRangeList[period][0])), 1)
statDict = statList[period]
for threatName in ['WindThreat', 'FloodingRainThreat', 'TornadoThreat']:
self._sampleThreatGrid(threatName, statDict)
self._sampleRankedDiscreteValue(threatName, statDict)
self._sampleMostSignificantDiscreteValue(threatName, statDict)
qpfToFfgRatio = self._getStatValue(statDict, "QPFtoFFGRatio", "Max")
decidingField = self._samplingDict['FloodingRainThreat']['decidingField']
if decidingField is None or qpfToFfgRatio > decidingField:
self._samplingDict['FloodingRainThreat']['decidingField'] = qpfToFfgRatio
print "SARAH: WindThreat =", self._samplingDict['WindThreat']['inputThreatDominant']
print "SARAH: FloodingRainThreat =", self._samplingDict['FloodingRainThreat']['inputThreatDominant']
print "SARAH: TornadoThreat =", self._samplingDict['TornadoThreat']['inputThreatDominant']
print "SARAH: WindThreat = %s" % (self._samplingDict['WindThreat']['inputThreatDominant'])
print "SARAH: FloodingRainThreat = %s" % (self._samplingDict['FloodingRainThreat']['inputThreatDominant'])
print "SARAH: TornadoThreat = %s" % (self._samplingDict['TornadoThreat']['inputThreatDominant'])
@ -744,14 +802,15 @@ class TextProduct(HLSTCV_Common.TextProduct):
for period in range(len(statList)):
statDict = statList[period]
self._sampleThreatGrid('StormSurgeThreat', statDict)
self._sampleRankedDiscreteValue('StormSurgeThreat', statDict)
self._sampleMostSignificantDiscreteValue('StormSurgeThreat', statDict)
inundationMax = self._getStatValue(statDict, "InundationMax", "Max")
decidingField = self._samplingDict['StormSurgeThreat']['decidingField']
if decidingField is None or inundationMax > decidingField:
self._samplingDict['StormSurgeThreat']['decidingField'] = inundationMax
print "SARAH: StormSurgeThreat =", self._samplingDict['StormSurgeThreat']['inputThreatDominant']
print "SARAH: StormSurgeThreat = %s" % (self._samplingDict['StormSurgeThreat']['inputThreatDominant'])
def _createWholeDomainEditArea(self, argDict):
editAreaUtils = EditAreaUtils.EditAreaUtils()
@ -765,16 +824,44 @@ class TextProduct(HLSTCV_Common.TextProduct):
refData = ReferenceData(gridLoc, refID, grid2Dbit)
editAreaUtils.saveEditAreas([refData])
def _sampleThreatGrid(self, threatName, statDict):
rankedThreatLevels = self.getStats(statDict, threatName)
print "SARAH: sampling", threatName
print "SARAH: sampleData: rankedThreatLevels =", rankedThreatLevels
dominantThreatLevel = self._getDominantThreatLevel(threatName, rankedThreatLevels)
currentDominantThreatLevel = self._samplingDict[threatName]['inputThreatDominant']
self._samplingDict[threatName]['inputThreatDominant'] = self._getHighestThreat(threatName,
dominantThreatLevel,
currentDominantThreatLevel)
def _sampleMostSignificantDiscreteValue(self, threatName, statDict):
print "SARAH: _sampleMostSignificantDiscreteValue for %s" % (threatName)
threatLevel = self.getStats(statDict, threatName + "__mostSignificantDiscreteValue")
print "SARAH: threatLevel =", threatLevel
if threatLevel is not None:
inputThreatLow = self._samplingDict[threatName]['inputThreatLow']
print "SARAH: current inputThreatLow =", inputThreatLow
if inputThreatLow is None:
self._samplingDict[threatName]['inputThreatLow'] = threatLevel
else:
self._samplingDict[threatName]['inputThreatLow'] = self._getLowestThreat(threatName,
threatLevel,
inputThreatLow)
print "SARAH: new inputThreatLow =", self._samplingDict[threatName]['inputThreatLow']
inputThreatHigh = self._samplingDict[threatName]['inputThreatHigh']
print "SARAH: current inputThreatHigh =", inputThreatHigh
self._samplingDict[threatName]['inputThreatHigh'] = self._getHighestThreat(threatName,
threatLevel,
inputThreatHigh)
print "SARAH: new inputThreatHigh =", self._samplingDict[threatName]['inputThreatHigh']
def _sampleRankedDiscreteValue(self, threatName, statDict):
print "-" * 60
print "_sampleRankedDiscreteValue statDict = %s" % (repr(statDict))
rankedThreatLevels = self.getStats(statDict, threatName + "__rankedDiscreteValue")
print "SARAH: sampling %s" % (threatName)
print "SARAH: sampleData: rankedThreatLevels = %s" % (repr(rankedThreatLevels))
if rankedThreatLevels is not None:
dominantThreatLevel = self._getDominantThreatLevel(threatName, rankedThreatLevels)
print "SARAH: dominantThreatLevel =", dominantThreatLevel
currentDominantThreatLevel = self._samplingDict[threatName]['inputThreatDominant']
print "SARAH: currentDominantThreatLevel =", currentDominantThreatLevel
self._samplingDict[threatName]['inputThreatDominant'] = self._getHighestThreat(threatName,
dominantThreatLevel,
currentDominantThreatLevel)
print "SARAH: new dominant =", self._samplingDict[threatName]['inputThreatDominant']
def _getDominantThreatLevel(self, threatName, rankedThreatLevels):
dominantLevelWithHighestRank = None
@ -805,6 +892,20 @@ class TextProduct(HLSTCV_Common.TextProduct):
else:
return threatLevel1
def _getLowestThreat(self, threatName, threatLevel1, threatLevel2):
keyOrderDict = self.mostSignificantDiscrete_keyOrder_dict(None, None, None)
keyOrder = keyOrderDict[threatName]
level1Index = keyOrder.index(threatLevel1)
level2Index = keyOrder.index(threatLevel2)
if level1Index < level2Index:
return threatLevel1
elif level1Index == level2Index:
return threatLevel1
else:
return threatLevel2
def _initializeVariables(self, argDict):
# Get variables
error = self._getVariables(argDict)
@ -860,15 +961,16 @@ class TextProduct(HLSTCV_Common.TextProduct):
def _sampleTCVAdvisory(self, advisory):
print "SARAH: sampling TCV advisory!"
for zone in advisory["ZoneData"]:
print "Looking at zone", zone
print "-" * 60
print "Looking at zone %s" % (zone)
for key in advisory["ZoneData"][zone]:
if "Threat" not in key:
continue
print "Looking at key", key
print "Looking at key '%s'" % (key)
threatLevel = advisory["ZoneData"][zone][key]
print "Threat level =", threatLevel
print " Threat level = %s" % (threatLevel)
if self._samplingDict[key]['inputThreatLow'] is None:
self._samplingDict[key]['inputThreatLow'] = threatLevel
if self._samplingDict[key]['inputThreatHigh'] is None:
@ -883,13 +985,13 @@ class TextProduct(HLSTCV_Common.TextProduct):
if threatOrder.index(threatLevel) > threatOrder.index(highThreat):
highThreat = threatLevel
print "low threat =", lowThreat
print "high threat =", highThreat
print " low threat = %s" % (lowThreat)
print " high threat = %s" % (highThreat)
self._samplingDict[key]['inputThreatLow'] = lowThreat
self._samplingDict[key]['inputThreatHigh'] = highThreat
print "Sampling dict =", self._samplingDict
print "Sampling dict = %s" % (repr(self._samplingDict))
def _setHazardImpactCategories(self, threatName):
inputThreatLow = self._samplingDict[threatName]['inputThreatLow']
@ -897,7 +999,10 @@ class TextProduct(HLSTCV_Common.TextProduct):
inputThreatDominant = self._samplingDict[threatName]['inputThreatDominant']
decidingField = self._samplingDict[threatName]['decidingField']
catastrophicThreshold = self._samplingDict[threatName]['catastrophicThreshold']
print "-" * 60
print "MATT DEBUG: _setHazardImpactCategories for %s" % (threatName)
impactMin = None
impactMax = None
impactRange = None
@ -926,22 +1031,25 @@ class TextProduct(HLSTCV_Common.TextProduct):
else:
impactMax = "devastating"
impactRangeMax = "extensive"
elif inputThreatLow == "High":
elif inputThreatHigh == "High":
impactMax = "extensive"
impactRangeMax = "significant"
elif inputThreatLow == "Mod":
elif inputThreatHigh == "Mod":
impactMax = "significant"
impactRangeMax = "limited"
elif inputThreatLow == "Elevated":
elif inputThreatHigh == "Elevated":
impactMax = "limited"
impactRangeMax = "none"
else:
impactMax = "none"
impactRangeMax = "none"
print "MATT DEBUG: impactMin = '%s' impactMax = '%s' impactRangeMax = '%s'" % \
(impactMin, impactMax, impactRangeMax)
# Determine dominant impact category for rest of CWA - No impact
if impactMin == "none" and impactMax == "none":
impactRange = "No impacts are anticipated at this time across " + self._cwa() + "."
impactRange = "No impacts are anticipated at this time across " + self._cwa_descriptor() + "."
# Otherwise, at least some impact will be experienced across the CWA
else:
# Do not permit the lowest category to be "None", if the highest category is also not "None"
@ -967,18 +1075,29 @@ class TextProduct(HLSTCV_Common.TextProduct):
# Fixed pattern to grab headline (MHB 04/08/2009)
# See if there is a headline in this text
headlineSearch = re.findall("(?ism)^(\.{3}.+?\.{3}) *\n", text)
# If we could not find original headlines, try to use 'new' HLS style
if headlineSearch is None:
headlineSearch = re.findall("(?ism)^\*\*.+?\*\* *\n", text)
self.debug_print("headlineSearch = %s" % (headlineSearch))
# If we found a headline
if len(headlineSearch) > 0:
# Remove the first and last ellipses - if they exist
headlineSearch[0] = re.sub("^\.\.\.", "", headlineSearch[0])
headlineSearch[0] = re.sub("\.\.\.$", "", headlineSearch[0])
# # Remove the first and last '**' - if they exist
# headlineSearch[0] = headlineSearch[0].sub("**", "").strip()
# Return the first cleaned-up headline string we found
return self._cleanText(headlineSearch[0])
# Otherwise, return an indicator there is no headline in this text
else:
return '' # Changed to an null string instead of None
return "" # Changed to an null string instead of None
# (MHB 04/08/2009)
def _determineHazards(self, segments):
@ -1071,18 +1190,18 @@ class TextProduct(HLSTCV_Common.TextProduct):
self._stormIntensityTrend = "Storm Intensity " + stormDict.get("StormIntensity","")
print "SARAH: BEGIN STORM INFORMATION"
print "storm dict =", stormDict
print "storm name =", self._stormName
print "type =", self._stormType
print "type name =", self._stormTypeName
print "time =", self._stormTime
print "lat =", self._stormLat
print "lon =", self._stormLon
print "location =", self._stormLocation
print "reference =", self._stormReference
print "references =", self._stormLocalReferences
print "movement trend =", self._stormMovementTrend
print "intensity trend =", self._stormIntensityTrend
print "storm dict = %s" % (stormDict)
print "storm name = %s" % (self._stormName)
print "type = %s" % (self._stormType)
print "type name = %s" % (self._stormTypeName)
print "time = %s" % (self._stormTime)
print "lat = %s" % (self._stormLat)
print "lon = %s" % (self._stormLon)
print "location = %s" % (str(self._stormLocation))
print "reference = %s" % (self._stormReference)
print "references = %s" % (self._stormLocalReferences)
print "movement trend = %s" % (self._stormMovementTrend)
print "intensity trend = %s" % (self._stormIntensityTrend)
print "SARAH: END STORM INFORMATION"
def _grabStormInfo(self, tcp):
@ -1758,7 +1877,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
removedParts.append(part)
for part in removedParts:
print "SARAH: Removing part =", part
print "SARAH: Removing part = %s" % (part)
partsList.remove(part)
def _noOpParts(self):
@ -1805,7 +1924,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
upgPhenSig = record['phen'] + "." + record['sig']
newRecord = self._findNEWAssociatedWithUPG(upgPhenSig, vtecRecords)
record['new_record'] = newRecord
print "SARAH: vtecRecord =", record
print "SARAH: vtecRecord = %s" % (repr(record))
segment_vtecRecords_tuples.append((segment, vtecRecords))
productSegmentGroup = {
@ -1888,7 +2007,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
def _initializeHazardsTable(self, argDict):
import VTECMessageType
productID = self._pil[0:3]
vtecMode = VTECMessageType.getVTECMessageType(productID)
vtecMode = VTECMessageType.getVTECMessageType(productID.upper())
argDict["vtecMode"] = vtecMode
self._setVTECActiveTable(argDict)
@ -1902,6 +2021,11 @@ class TextProduct(HLSTCV_Common.TextProduct):
def _setVTECActiveTable(self, argDict):
dataMgr = argDict["dataMgr"]
gfeMode = dataMgr.getOpMode().name()
print "*" *100
print "gfeMode = '%s'" % (gfeMode)
print "*" *100
if gfeMode == "PRACTICE":
argDict["vtecActiveTable"] = "PRACTICE"
@ -1960,7 +2084,7 @@ class TextProduct(HLSTCV_Common.TextProduct):
("Tornadoes", 'tornadoSection'),
("Other Coastal Hazards", 'coastalHazardsSection')
],
"default": ["Wind", "Surge", "Flooding Rain", "Tornadoes", "Other Coastal Hazards"],
"default": ["Wind", "Surge", "Flooding Rain", "Tornadoes"],
},
{
"name":"LocalReferencePoints",
@ -1971,14 +2095,14 @@ class TextProduct(HLSTCV_Common.TextProduct):
"default": self._localReferencePoints_defaults(),
},
{
"name": "MainHeadline",
"label": "Step 5. Input Main Headline (required)",
"name":"GeneralOnsetTime",
"label": "Step 5. General Time to Onset",
"options": [
("Enter Unique Headline (below)", "Enter"),
("Use Previous HLS Headline", "UsePrev"),
("Use Latest TCP Headline", "UseTCP"),
],
"entryField": " ",
("Watch", 'check plans'),
("Warning", 'complete preparations'),
("Conditions/Ongoing", 'hunker down'),
("Recovery", 'recovery'),
],
},
{
"name": "NextUpdate",
@ -1991,6 +2115,16 @@ class TextProduct(HLSTCV_Common.TextProduct):
"default": "Shortly",
"entryField": " e.g. 6 AM EDT",
},
{
"name": "MainHeadline",
"label": "Step 7. Input Main Headline (required)",
"options": [
("Enter Unique Headline (below)", "Enter"),
("Use Previous HLS Headline", "UsePrev"),
("Use Latest TCP Headline", "UseTCP"),
],
"entryField": " ",
},
]
def _displayGUI(self, infoDict=None):
@ -2043,10 +2177,12 @@ class Overview_Dialog(HLSTCV_Common.Common_Dialog):
boxNum = 0
buttonSide=Tkinter.TOP
frameSide = Tkinter.LEFT
elif index in [3,4]:
elif index in [3,4,5]:
boxNum = 1
buttonSide=Tkinter.LEFT
frameSide=Tkinter.TOP
# buttonSide=Tkinter.LEFT
# frameSide=Tkinter.TOP
buttonSide=Tkinter.TOP
frameSide=Tkinter.LEFT
else:
boxNum = 2
buttonSide=Tkinter.TOP
@ -2126,7 +2262,7 @@ class Overview_Dialog(HLSTCV_Common.Common_Dialog):
frame = Tkinter.Frame(master)
buttonList = self._parent._GUI1_configDict().get("buttonList", [])
for button, label in buttonList:
if button == "Next":
if button == "Run":
command = self.okCB
else: # Cancel
command = self.cancelCB
@ -2157,7 +2293,7 @@ class Overview_Dialog(HLSTCV_Common.Common_Dialog):
checkList.append((options[i], svar.get()))
else:
if ivarList[i].get():
print "SARAH: adding option =", options[i]
print "SARAH: adding option = %s" % (repr(options[i]))
checkList.append(options[i])
value = checkList
self._setVarDict(name, value)
@ -2195,7 +2331,7 @@ class LegacyFormatter():
@return text -- product string
'''
text = ''
print "SARAH: productParts =", productParts
print "SARAH: productParts = %s" % (productParts)
for part in productParts:
valtype = type(part)
if valtype is str:
@ -2203,11 +2339,11 @@ class LegacyFormatter():
elif valtype is tuple:
name = part[0]
infoDicts = part[1]
print "SARAH: name =", str(name)
print "SARAH: infoDicts =", infoDicts
print "SARAH: name = %s" % (str(name))
print "SARAH: infoDicts = %s" % (repr(infoDicts))
newtext = self.processSubParts(productDict.get(name), infoDicts)
print "SARAH: newtext type =", type(newtext)
print "SARAH: newtext =", repr(newtext)
print "SARAH: newtext type = %s" % (type(newtext))
print "SARAH: newtext = %s" % (repr(newtext))
text += newtext
continue
elif valtype is list:
@ -2291,8 +2427,8 @@ class LegacyFormatter():
text += '&&\n'
elif name not in self._noOpParts():
textStr = productDict.get(name)
print "SARAH: name =", name
print "SARAH: textStr =", textStr
print "SARAH: name = %s" % (name)
print "SARAH: textStr = '%s'" % (textStr)
if textStr:
text += textStr + '\n'
return text
@ -2355,7 +2491,7 @@ class LegacyFormatter():
text += self._textProduct.indentText("**" + headline + "**\n",
maxWidth=self._textProduct._lineLength)
text = self._textProduct._frame(text) + "\n"
text = self._textProduct._frame(text) + "\n\n"
return text
@ -2456,13 +2592,32 @@ class LegacyFormatter():
text += "\n"
additionalImpactRangeText = ""
curAdditionalImpactText = ""
count = 1
for additionalImpact in sectionDict['additionalImpactRange']:
additionalImpactRangeText += additionalImpact + " "
curAdditionalImpactText += \
self._textProduct.indentText(additionalImpact,
maxWidth=self._textProduct._lineLength)
if count != len(sectionDict['additionalImpactRange']) and \
len(curAdditionalImpactText) > 0:
curAdditionalImpactText += "\n"
# If this additional impact is not already included in the output
if additionalImpactRangeText.find(curAdditionalImpactText) == -1:
# Add this additional impact text
print "Adding current impact."
additionalImpactRangeText += curAdditionalImpactText
count += 1
# Remove the trailing space
additionalImpactRangeText = additionalImpactRangeText[:-1]
# additionalImpactRangeText = additionalImpactRangeText[:-1]
text += self._textProduct.indentText(additionalImpactRangeText, maxWidth=self._textProduct._lineLength)
# text += self._textProduct.indentText(additionalImpactRangeText, maxWidth=self._textProduct._lineLength)
text += additionalImpactRangeText
text += "\n"
return text
@ -2476,10 +2631,10 @@ class LegacyFormatter():
"""
text = ''
for i in range(len(subParts)):
print "SARAH: subpart subParts[i] =", subParts[i]
print "SARAH: subpart infoDicts[i] =", infoDicts[i]
print "SARAH: subpart subParts[i] = %s" % (subParts[i])
print "SARAH: subpart infoDicts[i] = %s" % (infoDicts[i])
newtext = self._processProductParts(subParts[i], infoDicts[i].get('partsList'))
print "SARAH: subpart newtext type =", type(newtext)
print "SARAH: subpart newtext =", repr(newtext)
print "SARAH: subpart newtext type = %s" % (type(newtext))
print "SARAH: subpart newtext = '%s'" % (repr(newtext))
text += newtext
return text

945
edexOsgi/com.raytheon.edex.plugin.gfe/utility/edex_static/base/textproducts/templates/product/Hazard_TCV.py
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