说明
python planetarycombinationslibrary示例是从最受好评的开源项目中提取的实现代码，你可以参考下面示例的使用方式。
编程语言: Python
命名空间/包名称: planetaryCombinationsLibrary
示例#1文件：
generatePcdFilesWithAspectLines.py项目：
philsong/pricechartingtool
def processAspectsCalculationTask(pcdd,
planet1ParamsList,
planet2ParamsList,
aspectGroup):
"""Processes the aspects, calculating where they are and adding
chart artifacts to the PriceChartDocumentData 'pcdd' object.
Returns:
Tuple containing:
(PriceChartDocumentData, int, str)
Where:
PriceChartDocumentData - The modified 'pcdd' object with artifacts added.
int - The number of artifacts added.
str - String containing the suggested filename basename when
saving this PriceChartDocumentData object.
"""
# Make a deep copy of the pcdd and the artifacts to ensure that
# the modifications are to a unique object.
pcddArtifacts = copy.deepcopy(pcdd.priceBarChartArtifacts)
pcdd = copy.deepcopy(pcdd)
pcdd.priceBarChartArtifacts = pcddArtifacts
# Keep a count of number of artifacts added.
numArtifactsAdded = 0
# Determine what the lowest price, highest price, earliest
# timestamp, and latest timestamp is, among all the PriceBars in
# the pcdd.
(lowestPrice, highestPrice, earliestTimestamp, latestTimestamp) = \
getHighestLowestEarliestLatestPriceBarPricesAndTimestamps(pcdd)
# Set the values to variables that we will use to call functions
# when creating pricebarchart artifacts.
lowPrice = lowestPrice
highPrice = highestPrice + (highestPrice * 0.1)
startDt = earliestTimestamp - datetime.timedelta(days=90)
endDt = latestTimestamp + datetime.timedelta(days=2*365)
for aspect in aspectGroup:
degreeDifference = aspect
# Get the timestamps of the aspect.
timestamps = \
PlanetaryCombinationsLibrary.getLongitudeAspectTimestamps(\
pcdd, startDt, endDt,
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the tag str for the aspect.
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the color to apply.
color = getColorForPlanetParamsList(planet1ParamsList)
# Draw the aspects.
for dt in timestamps:
PlanetaryCombinationsLibrary.addVerticalLine(\
pcdd, dt, highPrice, lowPrice, tag, color)
numArtifactsAdded += 1
# Create a str for the proposed filename basename of this modified
# PriceChartDocumentData object.
basename = ""
if len(aspectGroup) == 1:
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
basename = tag + ".pcd"
elif len(aspectGroup) > 1:
stepSize = aspectGroup[1] - aspectGroup[0]
degreeDifference = stepSize
# Get the tag str for the aspect step size.
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Here to create the basename, we will use the tag, but with an 'x'
# added after the degree aspect size number.
searchStr = "_DegreeAspect_"
degreeAspectStrPos = tag.find(searchStr)
if degreeAspectStrPos != -1:
# Find the position of the first "_" before the searchStr.
underscorePos = tag.rfind("_", 0, degreeAspectStrPos)
if underscorePos != -1:
# Finally, assemble what we want the basename to be,
# from pieces of the tag.
basename = tag[0:underscorePos] + \
"_{}x".format(degreeDifference) + \
tag[degreeAspectStrPos:] + \
".pcd"
else:
log.warn("Couldn't find the str '_' before str " + \
"'{}' in the tag '{}'.".\
format(searchStr, tag))
basename = tag + ".pcd"
else:
log.warn("Couldn't find the str '{}' in the tag '{}'.".\
format(searchStr, tag))
basename = tag + ".pcd"
else:
log.warn("There are aspects are in this aspectGroup.")
basename = "UNCHANGED.pcd"
log.debug("Setting basename to str '{}'".format(basename))
# All the values for the result has now been obtained.
# Return the result tuple.
return (pcdd, numArtifactsAdded, basename)示例#2文件：
DJIA.py项目：
philsong/pricechartingtool
def processPCDD(pcdd, tag):
"""Module for adding various PriceBarChartArtifacts that are
relevant to the chart. The tag str used for the created
artifacts is based the name of the function that is being called,
without the 'add' string at the beginning.
Arguments:
pcdd - PriceChartDocumentData object that will be modified.
tag - str containing the tag.
This implementation does not use this value.
Returns:
0 if the changes are to be saved to file.
1 if the changes are NOT to be saved to file.
"""
global highPrice
global lowPrice
# Return value.
rv = 0
stepSizeTd = datetime.timedelta(days=3)
#highPrice = 800.0
#highPrice = 600.0
#lowPrice = 600.0
#lowPrice = 300.0
if True:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn")
######################################
if False:
success = PlanetaryCombinationsLibrary.\
addGeoConjunctionsOfDirectRetrogradeMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury")
if True:
success = PlanetaryCombinationsLibrary.\
addGeoLeastMeanGreatConjunctionsOfRetrogradeDirectMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoConjunctionsOfDirectRetrogradeMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLeastMeanGreatConjunctionsOfRetrogradeDirectMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoConjunctionsOfDirectRetrogradeMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLeastMeanGreatConjunctionsOfRetrogradeDirectMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoConjunctionsOfDirectRetrogradeMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLeastMeanGreatConjunctionsOfRetrogradeDirectMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoConjunctionsOfDirectRetrogradeMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn")
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLeastMeanGreatConjunctionsOfRetrogradeDirectMidpointsVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn")
######################################
#if True:
# success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeVelocityPolarityChangeVerticalLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Jupiter")
#if True:
# success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeVelocityPolarityChangeVerticalLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Saturn")
if False:
degreeValue = 0
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Moon", "geocentric", "tropical",
"Sun", "geocentric", "tropical",
degreeValue, color=QColor(Qt.blue))
if False:
degreeValue = 180
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Moon", "geocentric", "tropical",
"Sun", "geocentric", "tropical",
degreeValue, color=QColor(Qt.red))
# Works well.
if False:
step = 360 / 20.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Works well.
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Works well.
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "heliocentric", "tropical",
"Saturn", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
# Works pretty well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Meh.
if False:
step = 360 / 18.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Works well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Catches some highs and lows, many small ones also, so it isn't
# that that great.
if False:
step = 360 / 20.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work work.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Caught some small turns, but then some looks like a handful of misses too.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Catches some bottoms very nicely, other turns probably need
# other planets contributing.
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
#########################################################################
# The below entries were copied from my studies of stock LVS, so the comments may not be accurate.
# This works well. You can see the pulses of energy with this.
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Saturn", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# May be worth investigating further (or looking at different numbers).
if False:
step = 360 / 28.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars", "geocentric", "tropical",
"Venus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Venus-Uranus didn't have much show up.
# Planets may be related but this did not work well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Saturn", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
# This combination of planets is worth looking more closely at.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 18.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Worked okay, but need to half this interval.
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# DId not work well.
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars", "heliocentric", "tropical",
"Venus", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"Jupiter", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 12.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Mercury", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"MeanNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 5.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"MeanNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 5.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Uranus", "heliocentric", "tropical",
"Earth", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Neptune", "heliocentric", "tropical",
"Earth", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 25
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Saturn", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Venus", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 12.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
#start = 16.6666 + (11 * 30) # Sun position
#start = 4.5333 + (10 * 30) # Venus position
#start = 4.6 # Mercury position
#start = 28.89 + (10 * 30) # Mars Helio position
#start = (3 * 30) + 8.4 # Moon position.
#start = (5 * 30) + 10.066 # Saturn position
#start = (5 * 30) + 17.5 # TNode position
#divisor = 5
divisor = 2
#divisor = 8
#divisor = 24
#divisor = 25
#divisor = 120
for i in range(divisor):
degreeValue = Util.toNormalizedAngle(start + (i * 360 / divisor))
success = PlanetaryCombinationsLibrary.\
addPlanetCrossingLongitudeDegVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"heliocentric", "tropical",
"Mars", degreeValue)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mercury",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mars",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="MeanOfFive",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="CycleOfEight",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice=700, lowPrice=660,
# planetName="Moon",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mercury",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mars",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Jupiter",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Neptune",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Pluto",
# color=None, stepSizeTd=stepSizeTd)
p = 1000
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H1")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H2")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H3")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H4")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H5")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H6")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H7")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H8")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H9")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H10")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H11")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H12")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="ARMC")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Vertex")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="EquatorialAscendant")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="CoAscendant1")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="CoAscendant2")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="PolarAscendant")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Sun")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Moon")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Mercury")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Venus")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Mars")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Jupiter")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Saturn")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Uranus")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Neptune")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Pluto")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addZeroDeclinationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addDeclinationVelocityPolarityChangeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeElongationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeElongationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Mercury")
#success = PlanetaryCombinationsLibrary.\
# addContraparallelDeclinationAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addParallelDeclinationAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addPlanetOOBVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Jupiter", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addZeroGeoLatitudeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeVelocityPolarityChangeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addContraparallelGeoLatitudeAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addParallelGeoLatitudeAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Venus", "geocentric", "sidereal",
# planetEpocDt=datetime.datetime(year=1976, month=4, day=1,
# hour=13, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=18)
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Venus", "heliocentric", "sidereal",
# planetEpocDt=datetime.datetime(year=1970, month=3, day=21,
# hour=0, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=30)
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Sun", "geocentric", "tropical",
# planetEpocDt=datetime.datetime(year=1970, month=3, day=21,
# hour=6, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=15)
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeVelocityPolarityChangeVerticalLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Mercury")
#success = PlanetaryCombinationsLibrary.\
# addBayerTimeFactorsAstroVerticalLines(\
# pcdd, startDt, endDt, highPrice, lowPrice)
############################################################################
# Testing new functions for longitude aspect timestamps.
if False:
aspectGroup = []
step = 180
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
aspectGroup.append(degreeDiff)
degreeDiff += step
planet1ParamsList = [("Venus", "geocentric", "sidereal")]
planet2ParamsList = [("Uranus", "geocentric", "sidereal")]
uniDirectionalAspectsFlag = True
for aspect in aspectGroup:
degreeDifference = aspect
# Get the timestamps of the aspect.
timestamps = \
PlanetaryCombinationsLibrary.getLongitudeAspectTimestamps(\
pcdd, startDt, endDt,
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the tag str for the aspect.
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planet1ParamsList[0][0])
# Draw the aspects.
for dt in timestamps:
PlanetaryCombinationsLibrary.addVerticalLine(\
pcdd, dt, highPrice, lowPrice, tag, color)
log.info("Added {} artifacts for aspect {} degrees.".\
format(len(timestamps), degreeDifference))
success = True
############################################################################
if success == True:
log.debug("Success!")
rv = 0
else:
log.debug("Failure!")
rv = 1
return rv示例#3文件：
PAAS.py项目：
philsong/pricechartingtool
def processPCDD(pcdd, tag):
"""Module for adding various PriceBarChartArtifacts that are
relevant to the chart. The tag str used for the created
artifacts is based the name of the function that is being called,
without the 'add' string at the beginning.
Arguments:
pcdd - PriceChartDocumentData object that will be modified.
tag - str containing the tag.
This implementation does not use this value.
Returns:
0 if the changes are to be saved to file.
1 if the changes are NOT to be saved to file.
"""
global highPrice
global lowPrice
# Return value.
rv = 0
stepSizeTd = datetime.timedelta(days=3)
#highPrice = 800.0
#highPrice = 600.0
#lowPrice = 600.0
#lowPrice = 300.0
#######################################
# From my paper notes dated April 21, 2012 on PAAS, it gives the
# following about PAAS that works somewhat well and is worth of
# investigating further.
#
# Mars-Venus connection (would need to apply a filter)
# Venus-MeanNode connection.
# 45-degree increments of Uranus-Earth Heliocentric.
# 51.X-degree increments of Venus-Pluto, Geocentric.
# Mars 51.X to natal Venus.
# TrueNorthNode 3-degree increments to natal Venus.
# May want to check out Venus-Chiron Geocentric.
# Test more planet transits to natal positions.
#######################################
# This is a cycle in PAAS.
if True:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# This is a cycle in PAAS.
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Investigate this one more closely.
if True:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars", "geocentric", "tropical",
"Venus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Definitely worth keeping an eye on.
if False:
step = 360 / 5.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars", "geocentric", "tropical",
"Venus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 42.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "geocentric", "tropical",
"Mars", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 12.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Mercury", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"MeanNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 5.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"MeanNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 5.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Investigate further.
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Uranus", "heliocentric", "tropical",
"Earth", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Neptune", "heliocentric", "tropical",
"Earth", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 25
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Saturn", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Venus", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 12.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Sun", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Investigate more closely.
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Mars", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Chiron", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Pluto", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 8.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Jupiter", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Jupiter", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Did not work well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
# The below natal positions are for the date March 7, 1979.
#start = 16.6666 + (11 * 30) # Sun position
start = 4.5333 + (10 * 30) # Venus position
#start = 4.6 # Mercury position
#start = 28.89 + (10 * 30) # Mars Helio position
#start = (3 * 30) + 8.4 # Moon position.
#start = (5 * 30) + 10.066 # Saturn position
#start = (5 * 30) + 17.5 # TNode position
#divisor = 5
#divisor = 2
divisor = 7
#divisor = 8
#divisor = 24
#divisor = 25
#divisor = 120
for i in range(divisor):
degreeValue = Util.toNormalizedAngle(start + (i * 360 / divisor))
success = PlanetaryCombinationsLibrary.\
addPlanetCrossingLongitudeDegVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"geocentric", "tropical",
#"heliocentric", "tropical",
"Mars", degreeValue)
#"TrueNorthNode", degreeValue)
####################################################################
# DId not work as well as I would have liked.
if False:
step = 360 / 28.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# Worth investigating more closely.
if False:
step = 360 / 16.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Saturn", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 7.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "geocentric", "tropical",
"Pluto", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 28.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# THis works kinda well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
# This works pretty well.
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"Uranus", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 14.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
step = 360 / 24.0
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter", "geocentric", "tropical",
"TrueNorthNode", "geocentric", "tropical",
degreeDiff)
degreeDiff += step
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mercury",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mars",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="MeanOfFive",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoLongitudeVelocityLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="CycleOfEight",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice=700, lowPrice=660,
# planetName="Moon",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mercury",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Mars",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Jupiter",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Neptune",
# color=None, stepSizeTd=stepSizeTd)
#success = PlanetaryCombinationsLibrary.addGeoDeclinationLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Pluto",
# color=None, stepSizeTd=stepSizeTd)
p = 1000
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H1")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H2")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H3")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H4")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H5")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H6")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H7")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H8")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H9")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H10")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H11")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="H12")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="ARMC")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Vertex")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="EquatorialAscendant")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="CoAscendant1")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="CoAscendant2")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="PolarAscendant")
#p += 20
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Sun")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Moon")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Mercury")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Venus")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Mars")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Jupiter")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Saturn")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Uranus")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Neptune")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addTimeMeasurementAndTiltedTextForNakshatraTransits(
# pcdd, startDt, endDt, price=p, planetName="Pluto")
#p += 200
#success = PlanetaryCombinationsLibrary.\
# addZeroDeclinationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addDeclinationVelocityPolarityChangeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeElongationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeElongationVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Mercury")
#success = PlanetaryCombinationsLibrary.\
# addContraparallelDeclinationAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addParallelDeclinationAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addPlanetOOBVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Jupiter", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Saturn", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Uranus", stepSizeTd=datetime.timedelta(days=7))
#success = PlanetaryCombinationsLibrary.\
# addZeroGeoLatitudeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addGeoLatitudeVelocityPolarityChangeVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice, planetName="Venus")
#success = PlanetaryCombinationsLibrary.\
# addContraparallelGeoLatitudeAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addParallelGeoLatitudeAspectVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# planet1Name="Venus", planet2Name="Mars")
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Venus", "geocentric", "sidereal",
# planetEpocDt=datetime.datetime(year=1976, month=4, day=1,
# hour=13, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=18)
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Venus", "heliocentric", "sidereal",
# planetEpocDt=datetime.datetime(year=1970, month=3, day=21,
# hour=0, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=30)
#success = PlanetaryCombinationsLibrary.\
# addPlanetLongitudeTraversalIncrementsVerticalLines(
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Sun", "geocentric", "tropical",
# planetEpocDt=datetime.datetime(year=1970, month=3, day=21,
# hour=6, minute=0, second=0,
# tzinfo=pytz.utc),
# degreeIncrement=15)
#success = PlanetaryCombinationsLibrary.\
# addGeoLongitudeVelocityPolarityChangeVerticalLines(\
# pcdd, startDt, endDt, highPrice, lowPrice,
# "Mercury")
############################################################################
# Testing new functions for longitude aspect timestamps.
if False:
aspectGroup = []
step = 180
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
aspectGroup.append(degreeDiff)
degreeDiff += step
planet1ParamsList = [("Venus", "geocentric", "sidereal")]
planet2ParamsList = [("Uranus", "geocentric", "sidereal")]
uniDirectionalAspectsFlag = True
for aspect in aspectGroup:
degreeDifference = aspect
# Get the timestamps of the aspect.
timestamps = \
PlanetaryCombinationsLibrary.getLongitudeAspectTimestamps(\
pcdd, startDt, endDt,
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the tag str for the aspect.
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planet1ParamsList[0][0])
# Draw the aspects.
for dt in timestamps:
PlanetaryCombinationsLibrary.addVerticalLine(\
pcdd, dt, highPrice, lowPrice, tag, color)
log.info("Added {} artifacts for aspect {} degrees.".\
format(len(timestamps), degreeDifference))
success = True
############################################################################
if success == True:
log.debug("Success!")
rv = 0
else:
log.debug("Failure!")
rv = 1
return rv示例#4文件：
AAPL.py项目：
philsong/pricechartingtool
def processPCDD(pcdd, tag):
"""Module for adding various PriceBarChartArtifacts that are
relevant to the Wheat chart. The tag str used for the created
artifacts is based the name of the function that is being called,
without the 'add' string at the beginning.
Arguments:
pcdd - PriceChartDocumentData object that will be modified.
tag - str containing the tag.
This implementation does not use this value.
Returns:
0 if the changes are to be saved to file.
1 if the changes are NOT to be saved to file.
"""
global highPrice
global lowPrice
# Return value.
rv = 0
stepSizeTd = datetime.timedelta(days=3)
#highPrice = 800.0
#highPrice = 600.0
#lowPrice = 600.0
#lowPrice = 300.0
if False:
step = 24
start = 0
stop = 360
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addPlanetCrossingLongitudeDegVerticalLines(
pcdd, startDt, endDt, highPrice, lowPrice,
"heliocentric", "tropical", "Mercury", degreeDiff)
degreeDiff += step
if False:
step = 36
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Earth", "heliocentric", "tropical",
"Mercury", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
if False:
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury")
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus")
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mars")
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Jupiter")
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Saturn")
if False:
aspectGroup = []
step = 9
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
aspectGroup.append(degreeDiff)
degreeDiff += step
# Mercury-Venus did not work very well for the geocentric
# 5-degree step differences.
# Mercury-Venus did not work very well for the geocentric
# 7-degree step differences.
# Mercury-Venus did not work very well for the geocentric
# 7.2-degree step differences.
# Mercury-Sun did not work very well for the geocentric
# 6-degree step differences. May need to try a larger separation.
# Mercury-TrueNorthNode did not work very well for the geocentric
# 5-degree step differences.
# Mercury-TrueNorthNode geocentric 7.2-degree steps makes it
# seem like this combination of planets has promise. May need
# a different separation amount though. I tried 14.4, but
# that is too wide.
# H Mercury-G TrueNorthNode 14.4-degree steps gives too many
# lines, so it's probably not the cycle.
# G Venus-G TrueNorthNode 5-degree steps gives too many
# lines, so they may just be coincidence. 7.2 didn't work well either.
planet1ParamsList = [("Venus", "geocentric", "tropical")]
planet2ParamsList = [("TrueNorthNode", "geocentric", "tropical")]
uniDirectionalAspectsFlag = False
for aspect in aspectGroup:
degreeDifference = aspect
# Get the timestamps of the aspect.
timestamps = \
PlanetaryCombinationsLibrary.getLongitudeAspectTimestamps(\
pcdd, startDt, endDt,
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the tag str for the aspect.
tag = \
PlanetaryCombinationsLibrary.getTagNameForLongitudeAspect(\
planet1ParamsList,
planet2ParamsList,
degreeDifference,
uniDirectionalAspectsFlag)
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planet1ParamsList[0][0])
# Draw the aspects.
for dt in timestamps:
PlanetaryCombinationsLibrary.addVerticalLine(\
pcdd, dt, highPrice, lowPrice, tag, color)
log.info("Added {} artifacts for aspect {} degrees.".\
format(len(timestamps), degreeDifference))
success = True
# DId not work very well.
if False:
step = 360 / 20 # 18 degree steps.
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Mercury", "heliocentric", "tropical",
"Venus", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
# Investigate further.
if False:
step = 360 / 72 # 5 deg steps.
start = 0
stop = 180
degreeDiff = start
while degreeDiff < stop or Util.fuzzyIsEqual(degreeDiff, stop):
success = PlanetaryCombinationsLibrary.\
addLongitudeAspectVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
"Venus", "heliocentric", "tropical",
"Earth", "heliocentric", "tropical",
degreeDiff)
degreeDiff += step
##########################################################################
# Retrograde planets.
if True:
planetName = "Mercury"
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planetName)
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
planetName)
if True:
planetName = "Venus"
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planetName)
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
planetName)
if True:
planetName = "Mars"
# Get the color to apply.
from astrologychart import AstrologyUtils
color = AstrologyUtils.\
getForegroundColorForPlanetName(planetName)
success = PlanetaryCombinationsLibrary.\
addGeoLongitudeVelocityPolarityChangeVerticalLines(\
pcdd, startDt, endDt, highPrice, lowPrice,
planetName)
############################################################################
if success == True:
log.debug("Success!")
rv = 0
else:
log.debug("Failure!")
rv = 1
return rv