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Solar_F_Tree.py
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Solar_F_Tree.py
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from LoadFiles import load
from ID3Tree import ID3Tree
from pprint import pprint
import math
d = {0: [1,2,3,4,5,6,7],
1: [1,2,3,4,5,6],
2: [1,2,3,4],
3: [1,2],
4: [1,2,3],
5: [1,2,3],
6: [1,2],
7: [1,2],
8: [1,2],
9: [1,2]}
bestAttr = [9,5,8,4,7,6,3,1,2,0]
bestAttrName = ["Code for class", "Code for largest spot size",
"Code for spot distribution", "Activity",
"Evolution"," Previous 24 hour flare activity code",
"Historically-complex","Did region become historically complex on this pass across the sun's disk ",
"Area", "Area of the largest spot"]
def main():
mat = load("flaredata2.txt")
tree = recurtion_function(mat, 0)
pprint(tree)
##InformationGain(mat,0)
##recurtion_function(matList)
## new to make sub lists based off attrubutes and then use recurtion to get the enropy
## python -m pdb myscript.py
def testAllSameClass(mat):
c = getClass(mat[0])
for i in range(len(mat)):
if(getClass(mat[i]) != c):
return False
return True
def getClass(array):
if(array[10] != 0 and array[11] == 0 and array[12] == 0):
return 1
elif(array[10] == 0 and array[11] != 0 and array[12] == 0):
return 2
elif(array[10] == 0 and array[11] == 0 and array[12] != 0):
return 3
else:
return 4
def mostComman(mat):
cCl = 0
mCl = 0
xCl = 0
noCl = 0
for i in range(len(mat)):
tempClass = getClass(mat[i])
if( tempClass == 1):
cCl = cCl + 1
elif(tempClass == 2):
mCl = mCl + 1
elif(tempClass == 3):
xCl = xCl + 1
else:
noCl = noCl + 1
maxNum = max(cCl, mCl, xCl, noCl)
if(maxNum == cCl):
return "C-class"
elif(maxNum == mCl):
return "M-class"
elif(maxNum == xCl):
return "X-class"
else:
return "Nall-Class"
def allSame(mat):
test = getClass(mat[0])
if(test == 1):
return "C-class"
elif(test == 2):
return "M-class"
elif(test == 3):
return "X-class"
else:
return "Nall-Class"
def recurtion_function(mat,attr):
print(attr)
root = ID3Tree("Node",mat)
if(testAllSameClass(mat)):
root.setLable(allSame(mat))
elif(len(bestAttr) == 0):
root.setLable(mostComman(mat))
else:
A = bestAttr.pop()
root.setLable(bestAttrName[A])
print("this is attr " + str(A))
for x in d.get(A):
print("this is x = " + str(x))
sub = makeSublist(mat,A,x)
#if(len(sub) == 0):
root.addToTree(str(x),sub)
if(len(root.childern[x-1].sublist) == 0):
root.setLable(mostComman(mat))
else:
print("recution case")
recurtion_function(sub,attr+1)
return root
def printSub(sub):
for i in range(len(sub)):
print(sub[i])
def InformationGain(mat, attr):
if attr <10:
print("#######################################################################")
parentEntr = entropy(mat)
print("Entropy of the parent --- >" + str(parentEntr))
kidEntrSum = 0
##print(parentEntr)
for x in d.get(attr):
sub = makeSublist(mat,attr,x)
#print("entro = " + str(entropy(sub)))
kidEntrSum = kidEntrSum + ((len(sub)/len(mat))*entropy(sub))
print("from this split ---> " + str(parentEntr - kidEntrSum))
InformationGain(mat,attr+1)
def makeSublist(mat, attr, key):
sub = []
for i in range(len(mat)):
if mat[i][attr] == key and checkIfmore(mat[i]):
sub.append(mat[i])
return sub
def checkIfmore(lis):
count = 0
if lis[10] != 0:
count = count +1
if lis[11] != 0:
count = count +1
if lis[12] != 0:
count = count +1
if(count <= 1):
return True
else:
return False
def entropy( mat):
if (len(mat) !=0):
entNum = 0.0
entrFrac = 0.0
for i in range(3):
entrFrac = (countClass(mat,i+10)/len(mat))
if(entrFrac != 0):
entNum = entNum - (entrFrac * math.log(entrFrac,2))
else:
enentNum = entNum - 0
entrFrac = (countNoClass(mat)/len(mat))
entNum = entNum - (entrFrac * math.log(entrFrac,2))
return entNum
else:
return 0
def countClass(mat, attr):
count = 0
for i in range(len(mat)):
if(mat[i][attr] != 0):
count = count + 1
##print("in count class = " + str(count))
return count
def countNoClass(mat):
count = 0
for i in range(len(mat)):
if(mat[i][10] == 0 and mat[i][11] == 0 and mat[i][12] == 0):
count = count + 1
##print("in other class = " + str(count))
return count
##print(clf.predict([2,2]))
##clf.predict([2,2])
main()