def circuit(self):
super().circuit()
R = Resistor()
stiff_voltage = Divider(type='resistive')(V=self.V,
V_out=self.V_split +
0.6 @ u_V,
Load=self.I_b)
stiff_voltage.input += self.v_ref
stiff_voltage.gnd += self.gnd
stiff_voltage.v_ref += self.v_ref
splitter = Bipolar(type='npn', common='emitter',
follow='collector')(collector=R(self.R_out),
emitter=R(self.R_out))
split = stiff_voltage & self & splitter
self.output = Net('OutputInverse')
self.output_n += splitter.collector
self.output += splitter.emitter
R_in = R.parallel_sum(
R,
[self.R_out * 2, stiff_voltage.R_in, stiff_voltage.R_out]) @ u_Ohm
self.C_in = (1 / (2 * pi * self.f_3db * R_in)) @ u_F
signal = Net('VoltageShiftAcInput')
ac_coupling = signal & Capacitor()(self.C_in) & self.input
self.input = signal
def circuit(self):
R = Resistor()
self.emitter = R(self.R_e)
super().circuit()
# R_in -- `1/R_(i\\n) = 1/R_s + 1/R_g + 1 / R_(i\\n(base))`
stiff_voltage = Divider(type='resistive')(
V = self.V,
V_out = self.V_e + self.V_je,
Load = self.I_in
)
stiff_voltage.gnd & self.gnd
# Stiffed voltage
self.v_ref & stiff_voltage & self.input
self.R_in = R.parallel_sum(R, [self.R_in_base_dc, stiff_voltage.R_in, stiff_voltage.R_out])
