def set_coefficients(self, c):
if not c:
c = [0.]
self.c0 = c[0]
c1p = c[1:]
discrete_compensate(c1p)
self.c[1:] = c1p
def set_coefficients(self, c):
if not c:
c = [0.]
self.c0 = c[0]
c1p = c[1:]
discrete_compensate(c1p)
self.c[1:] = c1p
def bias(self, amplitude=[], **kwargs):
"""Append a bias line to this segment.
Amplitude in volts
"""
coef = [self.out_scale * a for a in amplitude]
discrete_compensate(coef)
data = self.pack([0, 1, 2, 2], coef)
self.line(typ=0, data=data, **kwargs)
def bias(self, amplitude=[], **kwargs):
"""Append a bias line to this segment.
Amplitude in volts
"""
coef = [self.out_scale*a for a in amplitude]
discrete_compensate(coef)
data = self.pack([0, 1, 2, 2], coef)
self.line(typ=0, data=data, **kwargs)
def bias(self, amplitude=[], **kwargs):
"""Append a bias line to this segment.
Args:
amplitude (list[float]): Amplitude coefficients in in Volts and
increasing powers of ``1/(2**shift*clock_period)``.
Discrete time compensation will be applied.
**kwargs: Passed to :meth:`line`.
"""
coef = [self.out_scale * a for a in amplitude]
discrete_compensate(coef)
data = self.pack([0, 1, 2, 2], coef)
self.line(typ=0, data=data, **kwargs)
def dds(self, amplitude=[], phase=[], **kwargs):
"""Append a dds line to this segment.
Amplitude in volts,
phase[0] in turns,
phase[1] in turns*sample_rate,
phase[2] in turns*(sample_rate/2**shift)**2
"""
scale = self.out_scale / self.cordic_gain
coef = [scale * a for a in amplitude]
discrete_compensate(coef)
if phase:
assert len(amplitude) == 4
coef += [p * self.max_val * 2 for p in phase]
data = self.pack([0, 1, 2, 2, 0, 1, 1], coef)
self.line(typ=1, data=data, **kwargs)
def dds(self, amplitude=[], phase=[], **kwargs):
"""Append a dds line to this segment.
Amplitude in volts,
phase[0] in turns,
phase[1] in turns*sample_rate,
phase[2] in turns*(sample_rate/2**shift)**2
"""
scale = self.out_scale/self.cordic_gain
coef = [scale*a for a in amplitude]
discrete_compensate(coef)
if phase:
assert len(amplitude) == 4
coef += [p*self.max_val*2 for p in phase]
data = self.pack([0, 1, 2, 2, 0, 1, 1], coef)
self.line(typ=1, data=data, **kwargs)
def dds(self, amplitude=[], phase=[], **kwargs):
"""Append a DDS line to this segment.
Args:
amplitude (list[float]): Amplitude coefficients in in Volts and
increasing powers of ``1/(2**shift*clock_period)``.
Discrete time compensation and CORDIC gain compensation
will be applied by this method.
phase (list[float]): Phase/frequency/chirp coefficients.
``phase[0]`` in ``turns``,
``phase[1]`` in ``turns/clock_period``,
``phase[2]`` in ``turns/(clock_period**2*2**shift)``.
**kwargs: Passed to :meth:`line`.
"""
scale = self.out_scale / self.cordic_gain
coef = [scale * a for a in amplitude]
discrete_compensate(coef)
if phase:
assert len(amplitude) == 4
coef += [p * self.max_val * 2 for p in phase]
data = self.pack([0, 1, 2, 2, 0, 1, 1], coef)
self.line(typ=1, data=data, **kwargs)
def set_coefficients(self, c):
if not c:
c = [0.]
self.c = copy(c)
discrete_compensate(self.c)
def set_coefficients(self, c):
if not c:
c = [0.]
self.c = copy(c)
discrete_compensate(self.c)
