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test.py
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test.py
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#coding:utf-8
import bisect
import struct
from tkinter import *
import numpy as np
import matplotlib
import matplotlib.pyplot as plt
list = []; #the oringin list to store the information
list_content = []; #proceed input information
str = ''; # a string to store the information from every lines
info_node = {}; # a list to store every nodes and label
info_branch = {};
NumnodeS = 0; #number of nodes
info_control_commands = {}; # information of every control command
matrix = [[[0 for j in range(10)] for j in range(1000)] for i in range(1000)]; #the matrix that store the circuit
conversion = {'f':10**-15,'p':10**-12,'n':10**-9,'u':10**-6,'m':10**-3,'k':10**3,'meg':10**6,'g':10**9,'t':10**12}#unit conversion
matrix_nodes = [[0 for j in range(1000)] for i in range(1000)];
matrix_source_controled = [[0 for j in range(100)] for i in range(100)];
matrix_V = [0 for j in range(10)];
matrix_RHS = [0 for j in range(20)];
lp_s = 10;
T = 10;
label_c = [];
label_l = [];
with open('text4.txt','r') as f:
list = f.readlines()
class Element:
def __init__(self,id,u,v,s):
self.ID = id;
self.node1 = u;
self.node2 = v;
self.value = s;
class Source:
def __init__(self,id,u,v,s,a):
self.ID = id;
self.node1 = u;
self.node2 = v;
'''
if(self.ID[0]=='i'):
self.value = s + 'A';
if(self.ID[0]=='v'):
self.value = s + 'V';
'''
self.value = s;
self.oth = a;
class Source_controled:
def __init__(self,id,u,v,p,q,s):
self.ID = id;
self.node1 = u;
self.node2 = v;
self.node_control1 = p;
self.node_control2 = q;
self.value = s;
class Source_controled_fh:
def __init__(self,id,u,v,c,s):
self.ID = id;
self.node1 = u;
self.node2 = v;
self.cl = c;
self.value = s;
class Control:
def __init__(self,op,control):
self.command = op;
self.oth = control;
###########################################################################################################
#get the input fron netlist
###########################################################################################################
def get_input():
for i in range(0,len(list)):
list[i] = list[i].rstrip('\n');
str = list[i].lower();
str_list = str.split();
list_content.append(str_list);
print(list_content[i]);
def is_number(s):
try:
float(s)
return True
except ValueError:
pass
try:
import unicodedata
unicodedata.numeric(s)
return True
except (TypeError, ValueError):
pass
return False
def find_index_of_str(s1, s2):
lt=s1.split(s2,1)
if len(lt)==1:
return FALSE
return True
##################################################################################
#STORE INFORMATION #
###################################################################################
def draw():
num_node = 0;
com = 1;
comd = 1;
for i in range(0,len(list_content)):
if i==0:
str = list_content[i];
print(list[0]);
elif i==len(list_content)-1:
if list_content[i]==['.end']:
print('end!finish');
return num_node;
else:
print('error!');
return 0;
else:
tmp = list_content[i][0][0];
if(list_content[i][0]=="\'\'\'"):
com = -com;
continue;
if(list_content[i][0]=="\"\"\"" ):
comd = -comd;
continue;
if(com == -1 or comd == -1):
continue;
if(tmp == '.'):
if(len(list_content[i])>1):
for j in range(2,len(list_content[i])):
list_content[i][1] += list_content[i][j]+' ';
elem = Control(list_content[i][0],list_content[i][1]);
else:
elem = Control(list_content[i][0],0);
info_control_commands.update({elem.command:elem.oth});
elif(tmp=='#' or tmp=='*'):
continue;
############################################################################
#start to store the information of the circuit
############################################################################
else:
#create a dict to store the node
if(list_content[i][1] not in info_node):
info_node.update({list_content[i][1]:num_node});
num_node += 1;
if(list_content[i][2] not in info_node):
info_node.update({list_content[i][2]:num_node});
num_node += 1;
#store the infomation of all elements
if(tmp=='v'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
if(is_number(list_content[i][3][0])==True):
if(len(list_content[i])>4):
for j in range(5,len(list_content[i])):
list_content[i][4] += list_content[i][j];
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],list_content[i][4]);
else:
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],'');
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
else:
for j in range(4,len(list_content[i])):
list_content[i][3] += list_content[i][j];
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],0,list_content[i][3]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
elif(tmp=='i'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
if(is_number(list_content[i][3][0])==True):
if(len(list_content[i])>4):
for j in range(5,len(list_content[i])):
list_content[i][4] += list_content[i][j];
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],list_content[i][4]);
else:
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],'');
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
else:
for j in range(4,len(list_content[i])):
list_content[i][3] += list_content[i][j];
elem = Source(list_content[i][0],list_content[i][1],list_content[i][2],0,list_content[i][3]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
elif(tmp=='r'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
elem = Element(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
if(tmp=='c'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
elem = Element(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
if(tmp=='l'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
elem = Element(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
if(tmp=='g' or tmp =='e'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
elem = Source_controled(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],list_content[i][4],list_content[i][5]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
if(tmp=='f' or tmp=='h'):
k = 0;
while matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]!=0:
k = k+1;
elem = Source_controled(list_content[i][0],list_content[i][1],list_content[i][2],list_content[i][3],list_content[i][4]);
matrix[info_node[list_content[i][1]]][info_node[list_content[i][2]]][k]=elem;
##########################################################################################################################################
# prepare for the cubes
##########################################################################################################################################
def cube_ready(NumnodeS):
print(info_node);
print(info_control_commands);
print("num of nodes",NumnodeS);
label_option = option();
print("sssssssssssssssssssssssssssssss",label_option)
num_branch = 0;
num_c = 0;
num_l = 0;
for i in range(0,NumnodeS):
for j in range(0,NumnodeS):
if(matrix[i][j][0] == 0):
print(0,end=' ');
else:
print(matrix[i][j][0].value, end=' ');
print('\n');
for i in range(0,NumnodeS):
for j in range(0,NumnodeS):
if(matrix[i][j][0]!=0):
k = 0;
while(matrix[i][j][k]!=0 and k<10):
tmp = matrix[i][j][k];
print(tmp.ID[0],'TMP.ID');
if(tmp.ID[0]=='r'):
matrix_nodes[i][j] -= 1/float(tmp.value);
if(tmp.ID[0]=='g'):
for p in range(0,NumnodeS):
for q in range(0,NumnodeS):
if((p==info_node[tmp.node1] and q==info_node[tmp.node_control1]) or (p==info_node[tmp.node2] and q==info_node[tmp.node_control2])):
matrix_source_controled[p][q] += float(tmp.value);
#print(p,q,matrix_source_controled[p][q]);
elif((p==info_node[tmp.node2] and q==info_node[tmp.node_control1]) or (p==info_node[tmp.node1] and q==info_node[tmp.node_control2])):
matrix_source_controled[p][q] -= float(tmp.value);
#print(p,q,matrix_source_controled[p][q]);
if(tmp.ID[0]=='i'):
matrix_RHS[info_node[tmp.node1]] -= float(tmp.value);
matrix_RHS[info_node[tmp.node2]] += float(tmp.value);
print("GOT current");
if(tmp.ID[0]=='v'):
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 1;
matrix_nodes[ord][info_node[tmp.node2]] -= 1;
matrix_RHS[ord] += float(tmp.value);
print("GOT voltage" ,ord);
if(tmp.ID[0]=='c'):
if label_option==0:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += float(tmp.value)*lp_s;
matrix_nodes[ord][info_node[tmp.node2]] -= float(tmp.value)*lp_s;
matrix_nodes[ord][ord] -= 1;
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_c.append(tmpmatrix);
num_c += 1;
print("GOT C" ,ord);
elif label_option==1:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][ord] += 1;
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_c.append(tmpmatrix);
num_c += 1;
print("GOT C" ,ord);
elif label_option==2:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 2*float(tmp.value)*lp_s;
matrix_nodes[ord][info_node[tmp.node2]] -= 2*float(tmp.value)*lp_s;
matrix_nodes[ord][ord] -= 1;
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_c.append(tmpmatrix);
num_c += 1;
print("GOT C" ,ord);
if(tmp.ID[0]=='l'):
if label_option==0:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 1;
matrix_nodes[ord][info_node[tmp.node2]] -= 1;
matrix_nodes[ord][ord] -= lp_s * float(tmp.value);
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_l.append(tmpmatrix);
num_l += 1;
print("GOT L" ,ord);
elif label_option==1:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][ord] += 1;
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_l.append(tmpmatrix);
num_l += 1;
print("GOT L" ,ord);
elif label_option==2:
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 2*float(tmp.value)*lp_s;
matrix_nodes[ord][info_node[tmp.node2]] -= 2*float(tmp.value)*lp_s;
matrix_nodes[ord][ord] -= 1;
tmpmatrix = [ord,float(tmp.value),info_node[tmp.node1],info_node[tmp.node2]]
label_l.append(tmpmatrix);
num_l += 1;
print("GOT L" ,ord);
if(tmp.ID[0]=='e'):
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 1;
matrix_nodes[ord][info_node[tmp.node2]] -= 1;
matrix_nodes[ord][info_node[tmp.node_control1]] -= float(tmp.value);
matrix_nodes[ord][info_node[tmp.node_control2]] += float(tmp.value);
print("GOT Evoltage" ,ord);
if(tmp.ID[0]=='f'):
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
num_branch = num_branch+1;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 1;
matrix_nodes[ord][info_node[tmp.node2]] -= 1;
matrix_nodes[ord][info_node[tmp.node_control1]] -= float(tmp.value);
matrix_nodes[ord][info_node[tmp.node_control2]] += float(tmp.value);
matrix_RHS[ord] += 0;
print("GOT FCURRENT" ,ord);
if(tmp.ID[0]=='h'):
str_branch = tmp.ID;
info_branch.update({str_branch:num_branch});
info_branch.update({str_branch+'CC':num_branch+1});
num_branch = num_branch+2;
ord = NumnodeS + info_branch[str_branch];
matrix_nodes[info_node[tmp.node1]][ord] += 1;
matrix_nodes[info_node[tmp.node2]][ord] -= 1;
matrix_nodes[ord][info_node[tmp.node1]] += 1;
matrix_nodes[ord][info_node[tmp.node2]] -= 1;
matrix_nodes[ord][info_node[tmp.node_control1]] += 1;
matrix_nodes[ord][info_node[tmp.node_control2]] -= 1;
matrix_nodes[info_node[tmp.node_control1]][ord] += 1;
matrix_nodes[info_node[tmp.node_control2]][ord] -= 1;
matrix_nodes[ord][ord+1] -= float(tmp.value);
matrix_RHS[ord] += 0;
print("GOT Hvoltage" ,ord);
k = k+1;
if(matrix[j][i][0]!=0):
k = 0;
while(matrix[j][i][k]!=0 and k<10):
tmp = matrix[j][i][k];
if(tmp.ID[0]=='r'):
matrix_nodes[i][j] -= 1/float(tmp.value);
k = k+1;
if(i!=j):
matrix_nodes[i][i] -= matrix_nodes[i][j];
print("start");
print("the cube of the circuit:")
for i in range(0,NumnodeS):
for j in range(0,NumnodeS):
matrix_nodes[i][j] += matrix_source_controled[i][j];
print(matrix_nodes[i][j], end=' ');
print('\n');
print('######################################\n######################################');
print('the cube of RHS:');
for i in range(0,NumnodeS):
print(matrix_RHS[i], end=' ');
print('\n');
##################################################################################################
# START TO CACULATE
##################################################################################################
def caclulater(NumnodeS):
print("num of branch",info_branch);
gnd = int(info_node['0']);
extra_branch = len(info_branch);
print("START TO CACULATE",gnd ,"len(branch)",extra_branch);
matrix_RHS_to_ca = matrix_RHS[:gnd]+matrix_RHS[gnd+1:NumnodeS+extra_branch];
matrix_nodes_to_ca = matrix_nodes[:gnd]+matrix_nodes[gnd+1:NumnodeS+extra_branch];
for i in range(0,NumnodeS+extra_branch-1):
matrix_nodes_to_ca[i]=matrix_nodes_to_ca[i][:gnd]+matrix_nodes_to_ca[i][gnd+1:NumnodeS+extra_branch];
print("the cube of the circuit to caculate:")
for i in range(0,NumnodeS+extra_branch-1):
for j in range(0,NumnodeS+extra_branch-1):
print(matrix_nodes_to_ca[i][j], end=' ');
print('\n');
print('the oringin cube of RHS for caculate:');
for i in range(0,NumnodeS+extra_branch-1):
print(matrix_RHS_to_ca[i], end=' ');
print('\n');
option()
if len(label_c) or len(label_l):
t = 0;
matrix_res = [];
matrix_t = [];
matrix_t.append(0)
matrix_res.append(0)
res = [0 for j in range(NumnodeS+extra_branch)]
for i in range(0,lp_s):
t += T/lp_s;
if len(label_c):
for p in range(0,len(label_c)):
matrix_RHS_to_ca[label_c[p][0]-1] += label_c[p][1]*lp_s*(res[label_c[p][2]]-res[label_c[p][3]])
if len(label_l):
for q in range(0,len(label_l)):
matrix_RHS_to_ca[label_l[q][0]-1] -= label_l[q][1]*lp_s*(res[label_l[q][2]]-res[label_l[q][3]])
print("....................................",matrix_RHS_to_ca,res[label_c[p][0]-1])
a = np.array(matrix_nodes_to_ca);
b = np.array(matrix_RHS_to_ca);
#print(b)
res = np.linalg.solve(a,b);
print(res)
matrix_res.append(res[NumnodeS+1]);
matrix_t.append(t);
for p in range(0,len(label_c)):
matrix_RHS_to_ca[label_c[p][0]-1] = 0
for q in range(0,len(label_l)):
matrix_RHS_to_ca[label_l[q][0]-1] = 0
plt.plot(matrix_t,matrix_res) # pyplot.plot()
plt.show();
#print("matrix_res",matrix_res);
else:
print('the cube of RHS for caculate:');
for i in range(0,NumnodeS+extra_branch-1):
print(matrix_RHS_to_ca[i], end=' ');
print('\n');
print("the cube of the circuit to caculate:")
for i in range(0,NumnodeS+extra_branch-1):
for j in range(0,NumnodeS+extra_branch-1):
print(matrix_nodes_to_ca[i][j], end=' ');
print('\n');
a = np.array(matrix_nodes_to_ca);
b = np.array(matrix_RHS_to_ca);
res = np.linalg.solve(a,b);
print(res);
##################################################################################################
# option
##################################################################################################
def option():
label = 0
if len(info_control_commands):
for key in info_control_commands:
if key=='.option':
if find_index_of_str(info_control_commands[key],'be'):
label = 0
if find_index_of_str(info_control_commands[key],'de'):
label = 1
if find_index_of_str(info_control_commands[key],'tr'):
label = 2
return label
##################################################################################################
# main
##################################################################################################
def main():
get_input();
NumnodeS = draw();
cube_ready(NumnodeS);
caclulater(NumnodeS);
#################################################################################################
#GUI
#################################################################################################
class MY_GUI():
def __init__(self,init_window_name):
self.init_window_name = init_window_name
def set_init_window(self):
self.init_window_name.title("王业伟的hspice")
self.init_window_name.geometry('1068x681+10+10')
self.init_data_label = Label(self.init_window_name, text="netlist")
self.init_data_label.grid(row=0, column=0)
self.result_data_label = Label(self.init_window_name, text="输出结果")
self.result_data_label.grid(row=0, column=12)
self.init_data_Text = Text(self.init_window_name, width=67, height=35)
self.init_data_Text.grid(row=1, column=0, rowspan=10, columnspan=10)
self.result_data_Text = Text(self.init_window_name, width=70, height=35)
self.result_data_Text.grid(row=1, column=12, rowspan=15, columnspan=10)
self.str_trans_to_md5_button = Button(self.init_window_name, text="输出", bg="lightblue", width=10,command=self.do)
self.str_trans_to_md5_button.grid(row=1, column=11)
def do(self):
src = self.init_data_Text.get(1.0,END).strip().replace("\n","").encode()
with open('text3.txt','w') as f:
f.write(self.init_data_Text.get(1.0,END));
f.close();
self.result_data_Text.delete(1.0,END)
self.result_data_Text.insert(1.0,info_node)
def gui_start():
init_window = Tk()
ZMJ_PORTAL = MY_GUI(init_window)
ZMJ_PORTAL.set_init_window()
init_window.mainloop()
#gui_start()
main()