def compareAlgorithmsWithData(testCases):
global algosToTest, data, headers, testOutputFilename
allResults = {}
for key in algosToTest.keys():
allResults[key] = []
for companyName in sorted(testCases.keys()):
print('Testing ' + companyName)
data, headers = para.readFile(display.nameToFile(companyName))
for key in sorted(algosToTest.keys()):
#print(' algo ' + key)
for target in testCases[companyName]:
algo = algosToTest[key]
result = testAlgo(algo, target)
if result != None:
allResults[key].append(result)
#printResult(key, result)
averageResults = {}
f = open(testOutputFilename, 'w+')
for key in allResults.keys():
averageResult = computeAverageResult(allResults[key])
s = formatResult(key, averageResult)
f.write(s+'\n')
f.close()
def verify(fileName, todayIndex):
tomorrowIndex = todayIndex + 1
global groupSize, predictSize, config
if outputCharts == True:
chart = chartprinter.new(fileName, tomorrowIndex, config.algo, groupSize, predictSize)
else:
chart = None
data, headers = para.readFile(fileName)
if tomorrowIndex - groupSize < 0: return None
if tomorrowIndex + predictSize > len(data['Close']): return None
getKnownData = getKnownFun(tomorrowIndex)
getFutureData = getFutureFun(tomorrowIndex, predictSize)
knownData = {}
futureData = {}
for key in data:
knownData[key] = getKnownData(data[key])
futureData[key] = getFutureData(data[key])
defaultEarnings = getDefaultEarnings(futureData)
strategy = decideStrategy(knownData, groupSize, predictSize, chart)
if strategy == None: return (1, False, defaultEarnings) #dontTrade
result, traded = applyStrategy(strategy, futureData)
return (result, traded, defaultEarnings)
def testCubicFit():
import matplotlib.pyplot as plt
data, headers = para.readFile('data_/3_D_SYSTEMS_CORP_DEL.csv')
dates = data['Date']
close = data['Close']
start = 390
end = 450
dataList = para.averageLast(5)([close], len(close))
#dataList = close
linf = linearInterpolate(dataList[start:end])
cubf = cubicSpline(dataList[start:end])
x = list(map(lambda x : x/10, range(0,9*(end-start))))
linear = list(map(linf, x))
cubic = list(map(cubf, x))
coeffs = fitPoly(3)(cubic, 0, len(cubic))
p = polynomialFunction(coeffs)
estimate = list(map(p,x))
plt.plot(x, linear)
plt.plot(x, cubic)
plt.plot(x, estimate)
plt.show()
def main():
#data, headers = para.readFile('data_/AKAMAI_TECHNOLOGIES_INC.csv')
data, headers = para.readFile('data_334111/FUSION_I_O_INC.csv')
start = None
end = None
plotDoubleTopsFiltered(data, True, False, start=start, end=end)
def findDoubleTops():
dataFiles = util.listDataFiles()
for f in dataFiles:
data, headers = para.readFile(f)
intervals = dataselect.findDoubleTops(data)
if (len(intervals) > 0):
print(util.getNameOnly(f))
print(intervals)
def main():
dataFiles = util.listDataFiles()
results = []
for dataFile in dataFiles:
print('Reading ' + dataFile)
data, headers = para.readFile(dataFile)
datalist = data['Close']
results += computeResults(datalist)
import statistics
print('Results: ' + str(len(results)))
print(statistics.mean(results))
print(statistics.stdev(results))
def compareAlgorithms(fileName):
global data, headers
data, headers = para.readFile(fileName)
if (len(data['Date']) == 0):
print('Empty File')
return
global algosToTest
for key in algosToTest.keys():
print('Testing ' + key)
algo = algosToTest[key]
result = testAlgo(algo, 404)
printResult(key, result)
def runVisualise():
fileName = 'data_/AMERICAN_MANAGEMENT_SYSTEMS_INC.csv'
#fileName = 'table.csv'
targetGroup = 89
#global data, headers
data, headers = para.readFile(fileName)
dates = data['Date']
close = data['Close']
groups = grouping.groupUp(data, data['Close'])
target = targetGroup
targetNext = target+const.ma
results = testalgos.compareAllGroupsBefore(groups, target)
results2 = testalgos.compareAllGroupsBefore(groups, targetNext)
#results2 = compareAllGroupsTo(groups, targetNext)
results.reverse()
results.sort(key=lambda x : x[2])
results2.sort(key=lambda x : x[2])
print('Target ' + str(target))
display.plotgroup(data, groups[target])
plt.show()
for v in results[0:10]:
print(v)
totalRank = 0
ranks = []
for v in results[0:10]:
rank = testalgos.getRank(results2, v[0]+const.ma)
totalRank += rank
ranks.append(rank)
print('Total Rank = ' + str(totalRank))
print(ranks)
display.plotAverageHighLow(groups, results[0:10], groups[targetNext][2])
return
for v in results[0:10]:
print()
print('Chosen group:')
print('Number ' + str(v[0]) + ', SimilarityScore = ' + str(v[2]))
print('Matching Group:')
print('Number ' + str(v[0]+const.ma) + ', Rank = ' + str(testalgos.getRank(results2, v[0]+const.ma)))
print('Plotting Target Next Group (blue)')
display.plotnormalizedWith(data, groups[targetNext], [similarity.byFirst])
print('Plotting Predicted Next Group (green)')
display.plotnormalizedWith(data, groups[v[0]+const.ma], [similarity.byFirst])
plt.show()
def randomTestOnFile(fileName):
import random
global predictSize
data, headers = para.readFile(fileName)
length = len(data['Close']) - predictSize - 1
cases = filter(lambda v : random.random() < 0.05, range(0,length))
results = []
for i in cases:
result = verify(fileName, i)
if result != None:
results.append(result)
return results
def viewGraph():
fileName = 'data_/F_5_NETWORKS_INC.csv'
start, end = 200,1000
data, headers = para.readFile(fileName)
dates = data['Date']
#lines = ['High', 'Low', 'Close', 'Open']
lines = ['Running', 'DiffClose', 'DiffCloseSign']
for line in lines:
#plt.plot(data[line][start:end])
plt.plot(similarity.byMean(data[line][start:end]))
plt.show()
def runDataSelectOn(fileName):
data, headers = para.readFile(fileName)
dates = data['Date']
if (len(dates) == 0):
#print('Empty File')
return
groups = grouping.groupUp(data, data['Close'])
matches = dataselect.findMatches(data, groups)
#print('Found ' + str(len(matches)) + 'matches')
if (len(matches) <= 0): return #print only when there is at least one match.
print(util.getNameOnly(fileName))
for group in matches:
display.printgroupattrs(group, dates)
def predict():
global groupSize, predictSize, config
fileName = 'chinasp.csv'
todayIndex = 6230
chart = chartprinter.new(fileName, todayIndex, config.algo, predictSize)
data, headers = para.readFile(fileName)
getKnownData = getKnownFun(todayIndex)
knownData = {}
for key in data:
knownData[key] = getKnownData(data[key])
strategy = decideStrategy(knownData, groupsize, predictSize, chart)
if strategy == None: print("don't trade")
def testAlgorithmsForAverageScore(testCases, weightDict):
allResults = []
weightDataFun = weightedData(weightDict)
for companyName in testCases.keys():
#print('Testing ' + companyName)
data, headers = para.readFile(display.nameToFile(companyName))
for key in algosToTest.keys():
#print(' algo ' + key)
algo = algosToTest[key]
for target in testCases[companyName]:
result = testAlgoWeighted(algo, target, weightDataFun, data)
if result != None:
allResults.append(result)
averageResult = testalgos.computeAverageResult(allResults)
return averageResult[2] # Maximise the amount of return alone.
def selectiveTestOnFile(fileName):
import random
global predictSize
data, headers = para.readFile(fileName)
length = len(data['Close']) - predictSize - 1
cases = list(filter(lambda v : v < length, getDataselectPoints(data)))
#cases = filter(lambda v : random.random() < 0.05, range(0,length))
#print('Cases: ' + str(cases))
results = []
for i in cases:
result = verify(fileName, i)
if result != None:
results.append(result)
return results
def bestPolyFit():
import matplotlib.pyplot as plt
data, headers = para.readFile('data_/3_D_SYSTEMS_CORP_DEL.csv')
dates = data['Date']
close = data['Close']
#groups = grouping.groupUp(data, close)
start = 230
end = 379
#dataList = para.averageLast(5)([close], len(close))
dataList = close
#group = groups[23]
#coeffs = fitPoly(3)(dataList, group[0], group[1])
plt.plot(dataList[start:end])
bestRatio = 0
bestDegree = -1
lastValue = -1
savedPlot = None
for i in range(2,20):
coeffs = fitPoly(i)(dataList, start, end)
p = polynomialFunction(coeffs)
estimate = list(map(p, range(0,end-start)))
score = similarity.lpNorms(2)(estimate, dataList[start:end])
print('Degree ' + str(i) + ' score = ' + str(score))
#plt.plot(estimate)
if lastValue == -1:
lastValue = score
else:
ratio = lastValue/score
lastValue = score
if ratio > bestRatio:
savedPlot = estimate
bestRatio = ratio
bestDegree = i
print('Best degree = ' + str(bestDegree) + ' with score = ' + str(bestRatio))
plt.plot(savedPlot)
plt.show()
def testPolyFit():
import matplotlib.pyplot as plt
data, headers = para.readFile('data_/A_C_I_WORLDWIDE_INC.csv')
dates = data['Date']
close = data['Close']
#groups = grouping.groupUp(data, close)
start = 80
end = 200
#dataList = para.averageLast(5)([close], len(close))
dataList = close
#group = groups[23]
#coeffs = fitPoly(3)(dataList, group[0], group[1])
plt.plot(dataList[start:end])
coeffs = fitPoly(4)(dataList, start, end)
p = polynomialFunction(coeffs)
estimate = list(map(p, range(0,end-start)))
plt.plot(estimate)
plt.show()
def verify(fileName, predictSize):
data, headers = para.readFile(fileName)
return computeResults(data['Close'], predictSize)
def translateDate(fileName, dayIndex):
para.caching = True
data, headers = para.readFile(fileName)
return data['Date'][int(dayIndex)]
