def plot_diode():
def graph_diode():
try:
cnt = 0
if (f_bias.get()):
cnt += 1
if (r_bias.get()):
cnt += 1
q = 1.6 * pow(10, -19)
k = 1.38 * pow(10, -23)
e = 2.72
a = Area.get() * pow(10, pow_Area.get())
ni = intrinsic.get() * pow(10, pow_intrinsic.get())
nd = Donor_concn.get() * pow(10, pow_Donor_concn.get())
na = acceptor_concn.get() * pow(10, pow_acceptor_concn.get())
dp = diffusion_holes.get() * pow(10, pow_diffusion_holes.get())
dn = diffusion_electron.get() * pow(10,
pow_diffusion_electron.get())
tp = holes_life.get() * pow(10, pow_holes_life.get())
tn = electron_life.get() * pow(10, pow_electron_life.get())
t = temp.get() * pow(10, pow_temp.get())
holes = (math.sqrt(dp / tp)) / nd
electron = (math.sqrt(dn / tn)) / na
I0 = q * a * ni * ni * (holes + electron)
#I0=0.001
pow_coe = (q) / (t * k)
#print(q,k,e,a,ni,nd,na,dp,dn,tp,tn,t,holes,electron,pow_coe,I0)
current = []
v = []
max_vol = scale_factor.get()
for i in range(1, max_vol, 1):
volt = i / 100
hel = pow_coe * volt
sec_num = pow(e, hel)
val = I0 * (sec_num - 1)
current.append(val)
v.append(volt)
r_voltage = []
r_current = []
for i in range(1, max_vol, 1):
volt = -(i / 100)
hel = pow_coe * volt
sec_num = pow(e, hel)
val = I0 * (sec_num - 1)
r_current.append(val)
r_voltage.append(volt)
#print(v)
#print(current)
fig.clf()
inc = 1
if (f_bias.get()):
axis = fig.add_subplot(1, cnt, inc)
axis.plot(v, current)
axis.set_xlabel('voltage(Volt)')
axis.set_ylabel('Currnet(Amp)')
axis.set_title('Current Vs Voltage')
axis.grid(linestyle='-')
inc += 1
if (r_bias.get()):
carrier_graph = fig.add_subplot(1, cnt, inc)
carrier_graph.plot(r_current, r_voltage)
carrier_graph.set_xlabel('voltage(Volt)')
carrier_graph.set_ylabel('Currnet(Amp)')
carrier_graph.set_title('Current Vs Voltage')
carrier_graph.grid(linestyle='-')
inc += 1
canvas = FigureCanvasTkAgg(fig, master=diode_window)
canvas._tkcanvas.grid(row=12, column=0, columnspan=4, sticky=tk.EW)
# Amp_sig=Amp_c.get()*(1+(Amp_sen.get()*Amp_m.get())*(cos()))
diode_window.update()
save_diode(int(nd), int(na), int(a), int(ni), int(tp), int(tn),
float(dp), float(dn), float(t))
except:
msg.showerror('Input Entry Error', 'Please Enter Valid Number')
diode_window = tk.Tk(className='Diode Simulation')
# icon_background(modulation_window,photo)
diode_window.configure(background='AntiqueWhite1')
fig = Figure(figsize=(10, 4),
facecolor='pink',
edgecolor='green',
linewidth=1)
canvas = FigureCanvasTkAgg(fig, master=diode_window)
create_menu.create_menu_bar1(diode_window, canvas)
diode_window.resizable(False, False)
Donor_concn = tk.DoubleVar(diode_window)
pow_Donor_concn = tk.IntVar(diode_window)
pow_Donor_concn.set(20)
Donor_concn.set(1)
acceptor_concn = tk.DoubleVar(diode_window)
pow_acceptor_concn = tk.IntVar(diode_window)
pow_acceptor_concn.set(20)
acceptor_concn.set(1)
Area = tk.DoubleVar(diode_window)
pow_Area = tk.IntVar(diode_window)
pow_Area.set(4)
Area.set(1.25)
intrinsic = tk.DoubleVar(diode_window)
pow_intrinsic = tk.IntVar(diode_window)
pow_intrinsic.set(17)
intrinsic.set(1)
holes_life = tk.DoubleVar(diode_window)
pow_holes_life = tk.IntVar(diode_window)
pow_holes_life.set(-6)
holes_life.set(1)
electron_life = tk.DoubleVar(diode_window)
pow_electron_life = tk.IntVar(diode_window)
pow_electron_life.set(-6)
electron_life.set(1)
voltage = tk.DoubleVar(diode_window)
pow_voltage = tk.IntVar(diode_window)
pow_voltage.set(0)
voltage.set(10)
diffusion_holes = tk.DoubleVar(diode_window)
pow_diffusion_holes = tk.IntVar(diode_window)
pow_diffusion_holes.set(-4)
diffusion_holes.set(4.5)
diffusion_electron = tk.DoubleVar(diode_window)
pow_diffusion_electron = tk.IntVar(diode_window)
pow_diffusion_electron.set(-4)
diffusion_electron.set(22.5)
temp = tk.DoubleVar(diode_window)
pow_temp = tk.IntVar(diode_window)
pow_temp.set(0)
temp.set(300)
ttk.Label(diode_window,
text='Donor Concenteration At N-Side ').grid(row=0,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=Donor_concn).grid(row=0,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_Donor_concn).grid(row=0,
column=2,
sticky=tk.W)
ttk.Label(diode_window,
text='Acceptor Concenteration At P-Side ').grid(row=1,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=acceptor_concn).grid(row=1,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_acceptor_concn).grid(row=1,
column=2,
sticky=tk.W)
ttk.Label(diode_window, text='Cross Section Area ').grid(row=2,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=Area).grid(row=2, column=1, sticky=tk.W)
Entry(diode_window, textvariable=pow_Area).grid(row=2,
column=2,
sticky=tk.W)
ttk.Label(diode_window,
text='Intrinsic Carrier Concenteration ').grid(row=3,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=intrinsic).grid(row=3,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_intrinsic).grid(row=3,
column=2,
sticky=tk.W)
ttk.Label(diode_window, text='Lifetime Of Holes ').grid(row=4,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=holes_life).grid(row=4,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_holes_life).grid(row=4,
column=2,
sticky=tk.W)
ttk.Label(diode_window, text='Lifetime Of Electron ').grid(row=5,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=electron_life).grid(row=5,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_electron_life).grid(row=5,
column=2,
sticky=tk.W)
ttk.Label(diode_window,
text='Diffusion Constant Of Holes').grid(row=6,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=diffusion_holes).grid(row=6,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_diffusion_holes).grid(row=6,
column=2,
sticky=tk.W)
ttk.Label(diode_window,
text='Diffusion Constant Of Electron').grid(row=7,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=diffusion_electron).grid(row=7,
column=1,
sticky=tk.W)
Entry(diode_window, textvariable=pow_diffusion_electron).grid(row=7,
column=2,
sticky=tk.W)
#tk.Label(diode_window, text='Applied Voltage ').grid(row=8, column=0, sticky=tk.W)
#Entry(diode_window, textvariable=voltage).grid(row=8, column=1, sticky=tk.W)
#Entry(diode_window, textvariable=pow_voltage).grid(row=8, column=2, sticky=tk.W)
tk.Label(diode_window, text='Temperature ').grid(row=9,
column=0,
sticky=tk.W)
Entry(diode_window, textvariable=temp).grid(row=9, column=1, sticky=tk.W)
Entry(diode_window, textvariable=pow_temp).grid(row=9,
column=2,
sticky=tk.W)
scale_factor = tk.IntVar(diode_window)
scale_factor.set(75)
ttk.Label(diode_window, text='scale_factor :').grid(row=10,
column=0,
sticky=tk.E)
scaleing = Scale(diode_window,
from_=0,
to=1000,
variable=scale_factor,
orient=HORIZONTAL).grid(row=10, column=1, sticky=tk.EW)
action = ttk.Button(diode_window, command=graph_diode,
text='Plot Graph').grid(row=11, column=0, sticky=tk.E)
tk.Label(diode_window, text='Select to plot Graph').grid(row=0,
column=3,
sticky=tk.W)
f_bias = tk.IntVar(diode_window)
check1 = tk.Checkbutton(diode_window, text="Forward Bias", variable=f_bias)
f_bias.set(1)
check1.grid(row=1, column=3, sticky=tk.W)
r_bias = tk.IntVar(diode_window)
check2 = tk.Checkbutton(diode_window, text="Reverse Bias", variable=r_bias)
check2.deselect()
check2.grid(row=2, column=3, sticky=tk.W)
def Plot_Amplitude_Modulation():
def plot_AM():
save_mod(Amp_c.get(), fre_c.get(), Amp_m.get(), fre_m.get(),
Amp_sen.get(), 'AM')
try:
check_ = 0
if (mod_sig.get()):
check_ += 1
if (car_sig.get()):
check_ += 1
if (mes_sig.get()):
check_ += 1
inc_ = 1
Amplitde = []
Amplitude_carrier = []
Amplitude_send = []
time_ = []
m_f = fre_m.get()
time_period = ((1 / m_f) * (scale_factor.get() / 10)) / 100000
for i in range(1, 100000, 1):
time_.append(time_period * i)
Amplitde.append(Amp_m.get() * (np.cos(2 * math.pi * m_f *
(time_period * i))))
Amplitude_carrier.append(Amp_c.get() * (np.cos(
(2 * math.pi * fre_c.get() * (time_period * i)))))
Amplitude_send.append(Amplitude_carrier[i - 1] *
Amp_sen.get() * Amplitde[i - 1] +
Amplitude_carrier[i - 1])
#Amplitude_send.append(Amp_c.get()*(1+(Amp_sen.get()*Amp_m.get()*(np.cos(2*3.14*m_f*(time_period*i)))))*(np.cos(2*3.14*fre_c.get()*(time_period*i))))
max_y_lev = max(Amplitude_send)
#fig = Figure(figsize=(15, 6), facecolor='pink', edgecolor='green', linewidth=1)
fig.clf()
if (mod_sig.get()):
axis = fig.add_subplot(1, check_, inc_)
axis.plot(time_, Amplitde)
axis.set_xlabel('time(Sec)')
axis.set_ylabel('Amplitude(Volt)')
axis.set_title('Amplitude Vs Time of modulating signal')
axis.grid(linestyle='-')
inc_ += 1
if (car_sig.get()):
carrier_graph = fig.add_subplot(1, check_, inc_)
carrier_graph.plot(time_, Amplitude_carrier)
carrier_graph.set_xlabel('time(Sec)')
carrier_graph.set_ylabel('Amplitude(Volt)')
carrier_graph.set_title('Amplitude Vs Time of carrier signal')
carrier_graph.grid(linestyle='-')
inc_ += 1
if (mes_sig.get()):
sender_graph = fig.add_subplot(1, check_, inc_)
sender_graph.plot(time_, Amplitude_send)
sender_graph.set_xlabel('time(Sec)')
sender_graph.set_ylabel('Amplitude(Volt)')
sender_graph.set_title('Amplitude Vs Time of message signal')
sender_graph.grid(linestyle='-')
inc_ += 1
#axis.set_ylim(-max_y_lev-10, max_y_lev+10)
#carrier_graph.set_ylim(-max_y_lev-10, max_y_lev+10)
#sender_graph.set_ylim(-max_y_lev-10, max_y_lev+10)
#axis.set_xlim(-10, max_range + 10)
canvas = FigureCanvasTkAgg(fig, master=modulation_window)
canvas._tkcanvas.grid(row=7, column=0, columnspan=3, sticky=tk.EW)
#Amp_sig=Amp_c.get()*(1+(Amp_sen.get()*Amp_m.get())*(cos()))
modulation_window.update()
except:
msg.showerror('Input Entry Error', 'Please Enter Valid Number')
modulation_window = tk.Tk(className='Amplitude Modulation')
#icon_background(modulation_window,photo)
modulation_window.configure(background='MintCream')
fig = Figure(figsize=(13, 4),
facecolor='HoneyDew',
edgecolor='green',
linewidth=1)
canvas = FigureCanvasTkAgg(fig, master=modulation_window)
create_menu.create_menu_bar1(modulation_window, canvas)
modulation_window.resizable(False, False)
Amp_c = tk.DoubleVar(modulation_window)
fre_c = tk.DoubleVar(modulation_window)
Amp_m = tk.DoubleVar(modulation_window)
fre_m = tk.DoubleVar(modulation_window)
Amp_sen = tk.DoubleVar(modulation_window)
ttk.Label(modulation_window,
text='Carrier Signal Amplitude :').grid(row=0,
column=0,
sticky=tk.E)
Entry(modulation_window, textvariable=Amp_c).grid(row=0,
column=1,
sticky=tk.W)
ttk.Label(modulation_window,
text='Carrier Signal Frequency :').grid(row=1,
column=0,
sticky=tk.E)
Entry(modulation_window, textvariable=fre_c).grid(row=1,
column=1,
sticky=tk.W)
ttk.Label(modulation_window,
text='Modulating Signal Amplitude :').grid(row=2,
column=0,
sticky=tk.E)
Entry(modulation_window, textvariable=Amp_m).grid(row=2,
column=1,
sticky=tk.W)
ttk.Label(modulation_window,
text='Modulating Signal Frequency :').grid(row=3,
column=0,
sticky=tk.E)
Entry(modulation_window, textvariable=fre_m).grid(row=3,
column=1,
sticky=tk.W)
ttk.Label(modulation_window,
text='Amplitude Sensitivity :').grid(row=4,
column=0,
sticky=tk.E)
Entry(modulation_window, textvariable=Amp_sen).grid(row=4,
column=1,
sticky=tk.W)
scale_factor = tk.DoubleVar(modulation_window)
ttk.Label(modulation_window, text='scale_factor :').grid(row=5,
column=0,
sticky=tk.E)
scaleing = Scale(modulation_window,
from_=0,
to=100,
variable=scale_factor,
orient=HORIZONTAL).grid(row=5, column=1, sticky=tk.EW)
# check box making
tk.Label(modulation_window, text='Select to plot Graph').grid(row=0,
column=2,
sticky=tk.W)
mod_sig = tk.IntVar(modulation_window)
check1 = tk.Checkbutton(modulation_window,
text="Modulating Signal",
variable=mod_sig) # ,state='disabled')
check1.deselect()
check1.grid(row=1, column=2, sticky=tk.W)
car_sig = tk.IntVar(modulation_window)
check2 = tk.Checkbutton(modulation_window,
text="Carrier Signal",
variable=car_sig)
check2.deselect()
check2.grid(row=2, column=2, sticky=tk.W)
mes_sig = tk.IntVar(modulation_window)
check3 = tk.Checkbutton(modulation_window,
text='Message Signal',
variable=mes_sig)
check3.select()
check3.grid(row=3, column=2, sticky=tk.W)
action = ttk.Button(modulation_window, command=plot_AM,
text='Plot Graph').grid(row=6, column=0, sticky=tk.E)