def colorNode(node):
subarr = []; colors = []
ptr1 = Nodes.index(node)
for c in range(Num_Nodes):
colors.append(c+1)
for n1 in Nbr[ptr1]:
ptr2 = Nodes.index(n1)
if(colorArray[ptr2] != 0):
subarr.append(colorArray[ptr2])
cf.rmvNbr1(colors,subarr)
colors.reverse()
colorArray[ptr1] = colors.pop()
def TwoHopNbr(arr1,arr2):
arr3 = []
for m in arr1:
subarr = []
ptr1 = arr1.index(m)
for n1 in arr2[ptr1]:
ptr2 = arr1.index(n1)
for n2 in arr2[ptr2]:
if(m != n2):
subarr.append(n2)
cf.rmv_duplicate(subarr)
cf.rmvNbr1(subarr,arr2[ptr1])
arr3.append(subarr)
return arr3
Nbr_t.append(Nbr1_t[m]+Nbr2_t[m])
CDS_t = np.zeros(num_Nodes)
for n1 in Nodes_t:
CDS_t[n1] = 1
#Coloring of the Node...
color = []; subarr = []
for c in range(Num_Nodes_t):
color.append(c+1)
ptr1 = Nodes_t.index(node)
for n in Nbr_t[ptr1]:
ptr2 = Nodes_t.index(n)
if(colorArray[ptr2] != 0):
subarr.append(colorArray[ptr2])
cf.rmvNbr1(color,subarr)
color.reverse()
Color_Array[Num_Nodes] = color.pop()
#Calculating the maximum frame size
maxColor_t = Color_Array.max()
power = math.ceil(math.log(maxColor_t)/math.log(2))
maxFrame_t = int(2**power)
#Matrix for slot Tx of each node
TxSlot_t = np.zeros([Num_Nodes_t,maxFrame_t])
#Matrix for slot Tx of nodes
Tx_t = np.zeros([Num_Nodes_t,maxFrame_t])
#Initializing the TxSlot Matrix
