def loaddata(s, Name, N1, N2, N3, N4, V):
if (s[0] == "R" or s[0] == "L" or s[0] == "C"):
nElement = Element.Element(Name, N1, N2, V)
Elements.append(nElement)
global num_Elements
num_Elements = num_Elements + 1
if (s[0] == "L"):
nElement = Element.Element(Name, N1, N2, V)
Inductors.append(nElement)
global num_L
num_L = num_L + 1
elif (s[0] == "C"):
nElement = Element.Element(Name, N1, N2, V)
Capacitors.append(nElement)
global num_C
num_C = num_C + 1
elif (s[0] == "V"):
if (N4 == 0):
print(N3)
nVolt = Element.Element(Name, N1, N2, V)
Volt_sources.append(nVolt)
global num_V
num_V = num_V + 1
else:
nACVolt = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
Volt_sources.append(nACVolt)
global num_ACV
num_ACV = num_ACV + 1
global num_V
num_V = num_V + 1
elif (s[0] == "I"):
if (N4 == 0):
nCurr = Element.Element(Name, N1, N2, V)
Current_sources.append(nCurr)
global num_I
num_I = num_I + 1
else:
print("error")
nACCurr = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
Current_sources.append(nACCurr)
global num_ACI
num_ACI = num_ACI + 1
global num_I
num_I = num_I + 1
elif (s[0] == "E"):
nVCVS = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
VCVS.append(nVCVS)
global num_VCVS
num_VCVS = num_VCVS + 1
global num_DependentSources
num_DependentSources = num_DependentSources + 1
elif (s[0] == "G"):
y = ""
for i in V:
if (i == "E"):
y += "*10**"
else:
y += i
V = eval(y)
nVCCS = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
VCCS.append(nVCCS)
global num_VCCS
num_VCCS = num_VCCS + 1
num_DependentSources = num_DependentSources + 1
elif (s[0] == "H"):
nCCVS = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
CCVS.append(nCCVS)
global num_CCVS
num_CCVS = num_CCVS + 1
global num_DependentSources
num_DependentSources = num_DependentSources + 1
elif (s[0] == "F"):
y = ""
for i in V:
if (i == "E"):
y += "*10**"
else:
y += i
V = eval(y)
nCCCS = Element.Dependent_Source(Name, N1, N2, N3, N4, V)
CCCS.append(nCCCS)
global num_CCCS
num_CCCS = num_CCCS + 1
num_DependentSources = num_DependentSources + 1
global num_Nodes
num_Nodes = max(N1, max(N2, num_Nodes))
