# Repository: https://gitlab.com/quantify-os/quantify-scheduler
# Licensed according to the LICENCE file on the main branch
"""Compiler classes for Qblox backend."""
from __future__ import annotations
from collections import defaultdict
from typing import TYPE_CHECKING, Any
import numpy as np
from quantify_scheduler.backends.qblox import compiler_abc
from quantify_scheduler.backends.qblox.analog import (
AnalogModuleCompiler,
BasebandModuleCompiler,
RFModuleCompiler,
)
from quantify_scheduler.backends.qblox.constants import (
MAX_NUMBER_OF_INSTRUCTIONS_QCM,
MAX_NUMBER_OF_INSTRUCTIONS_QRM,
MAX_NUMBER_OF_INSTRUCTIONS_QTM,
NUMBER_OF_SEQUENCERS_QCM,
NUMBER_OF_SEQUENCERS_QRM,
NUMBER_OF_SEQUENCERS_QTM,
)
from quantify_scheduler.backends.qblox.enums import (
QbloxFilterConfig,
QbloxFilterMarkerDelay,
)
from quantify_scheduler.backends.qblox.timetag import TimetagSequencerCompiler
from quantify_scheduler.backends.types.common import (
HardwareDistortionCorrection,
)
from quantify_scheduler.backends.types.qblox import (
AnalogModuleSettings,
BoundedParameter,
OpInfo,
QbloxRealTimeFilter,
RFModuleSettings,
StaticAnalogModuleProperties,
StaticTimetagModuleProperties,
TimetagModuleSettings,
)
if TYPE_CHECKING:
from quantify_scheduler.backends.qblox_backend import (
_ClusterCompilationConfig,
_ClusterModuleCompilationConfig,
_LocalOscillatorCompilationConfig,
_SequencerCompilationConfig,
)
from quantify_scheduler.resources import Resource
[docs]
class LocalOscillatorCompiler(compiler_abc.InstrumentCompiler):
"""
Implementation of an
:class:`~quantify_scheduler.backends.qblox.compiler_abc.InstrumentCompiler`
that compiles for a generic LO. The main
difference between this class and the other compiler classes is that it doesn't take
pulses and acquisitions.
Parameters
----------
name
QCoDeS name of the device it compiles for.
total_play_time
Total time execution of the schedule should go on for. This parameter is
used to ensure that the different devices, potentially with different clock
rates, can work in a synchronized way when performing multiple executions of
the schedule.
instrument_cfg
The compiler config referring to this instrument.
"""
def __init__(
self,
name: str,
total_play_time: float,
instrument_cfg: _LocalOscillatorCompilationConfig,
) -> None:
super().__init__(
name=name,
total_play_time=total_play_time,
instrument_cfg=instrument_cfg,
)
[docs]
self.freq_param_name = "frequency"
[docs]
self._frequency = instrument_cfg.frequency
[docs]
self.power_param_name = "power"
[docs]
self._power = instrument_cfg.hardware_description.power
@property
[docs]
def frequency(self) -> float | None:
"""
Getter for the frequency.
Returns
-------
:
The current frequency.
"""
return self._frequency
@frequency.setter
def frequency(self, value: float) -> None:
"""
Sets the lo frequency for this device if no frequency is specified, but raises
an exception otherwise.
Parameters
----------
value
The frequency to set it to.
Raises
------
ValueError
Occurs when a frequency has been previously set and attempting to set the
frequency to a different value than what it is currently set to. This would
indicate an invalid configuration in the hardware mapping.
"""
if self._frequency is not None and value != self._frequency:
raise ValueError(
f"Attempting to set LO {self.name} to frequency {value}, "
f"while it has previously already been set to "
f"{self._frequency}!"
)
self._frequency = value
[docs]
def compile(
self,
debug_mode: bool, # noqa: ARG002 Debug_mode not used for this class
repetitions: int = 1, # noqa: ARG002 Repetitions not used for this class
) -> dict[str, Any] | None:
"""
Compiles the program for the LO InstrumentCoordinator component.
Parameters
----------
debug_mode
Debug mode can modify the compilation process,
so that debugging of the compilation process is easier.
repetitions
Number of times execution the schedule is repeated.
Returns
-------
:
Dictionary containing all the information the InstrumentCoordinator
component needs to set the parameters appropriately.
"""
if self._frequency is None:
return None
return {
f"{self.name}.{self.freq_param_name}": self._frequency,
f"{self.name}.{self.power_param_name}": self._power,
}
[docs]
class QCMCompiler(BasebandModuleCompiler):
"""QCM specific implementation of the qblox compiler."""
[docs]
_settings_type = AnalogModuleSettings
# Ignore pyright because a "static property" does not exist (in the standard library).
[docs]
supports_acquisition = False # type: ignore
[docs]
max_number_of_instructions = MAX_NUMBER_OF_INSTRUCTIONS_QCM # type: ignore
[docs]
static_hw_properties: StaticAnalogModuleProperties = StaticAnalogModuleProperties(
instrument_type="QCM",
max_sequencers=NUMBER_OF_SEQUENCERS_QCM,
max_awg_output_voltage=2.5,
mixer_dc_offset_range=BoundedParameter(min_val=-2.5, max_val=2.5, units="V"),
channel_name_to_digital_marker={
"digital_output_0": 0b0001,
"digital_output_1": 0b0010,
"digital_output_2": 0b0100,
"digital_output_3": 0b1000,
},
)
[docs]
def _get_distortion_configs_per_output(self) -> dict[int, dict]:
module_distortion_configs = {}
corrections = self.instrument_cfg.hardware_options.distortion_corrections
if corrections is not None:
for portclock in corrections:
if (path := self.instrument_cfg.portclock_to_path.get(portclock, None)) is not None:
correction_cfg = corrections[portclock]
# `correction_cfg` can also be a `SoftwareDistortionCorrection`
if isinstance(correction_cfg, (HardwareDistortionCorrection, list)):
output_name = path.channel_name
output_number = int(output_name.split("_")[-1])
channel_description = getattr(
self.instrument_cfg.hardware_description, output_name
)
marker_debug_mode_enable = (
channel_description.marker_debug_mode_enable
if channel_description is not None
else False
)
if module_distortion_configs.get(output_number) is None:
if isinstance(correction_cfg, HardwareDistortionCorrection):
output_number = int(output_name.split("_")[-1])
module_distortion_configs[output_number] = {
"distortion_corrections": correction_cfg,
"marker_debug_mode_enable": marker_debug_mode_enable,
}
elif isinstance(correction_cfg, list):
output_number = 2 * int(output_name.split("_")[-1])
module_distortion_configs[output_number] = {
"distortion_corrections": correction_cfg[0],
"marker_debug_mode_enable": marker_debug_mode_enable,
}
output_number += 1
module_distortion_configs[output_number] = {
"distortion_corrections": correction_cfg[1],
"marker_debug_mode_enable": marker_debug_mode_enable,
}
else:
raise ValueError(
f"Attempting to set distortion corrections to"
f"{output_name} using portclock {portclock}, while it"
f"has previously already been set on this output."
)
return module_distortion_configs
[docs]
class QRMCompiler(BasebandModuleCompiler):
"""QRM specific implementation of the qblox compiler."""
[docs]
_settings_type = RFModuleSettings
# Ignore pyright because a "static property" does not exist (in the standard library).
[docs]
supports_acquisition = True # type: ignore
[docs]
max_number_of_instructions = MAX_NUMBER_OF_INSTRUCTIONS_QRM # type: ignore
[docs]
static_hw_properties: StaticAnalogModuleProperties = StaticAnalogModuleProperties(
instrument_type="QRM",
max_sequencers=NUMBER_OF_SEQUENCERS_QRM,
max_awg_output_voltage=0.5,
mixer_dc_offset_range=BoundedParameter(min_val=-0.5, max_val=0.5, units="V"),
channel_name_to_digital_marker={
"digital_output_0": 0b0001,
"digital_output_1": 0b0010,
"digital_output_2": 0b0100,
"digital_output_3": 0b1000,
},
)
[docs]
class QCMRFCompiler(RFModuleCompiler):
"""QCM-RF specific implementation of the qblox compiler."""
# Ignore pyright because a "static property" does not exist (in the standard library).
[docs]
supports_acquisition = False # type: ignore
[docs]
max_number_of_instructions = MAX_NUMBER_OF_INSTRUCTIONS_QCM # type: ignore
[docs]
static_hw_properties: StaticAnalogModuleProperties = StaticAnalogModuleProperties(
instrument_type="QCM_RF",
max_sequencers=NUMBER_OF_SEQUENCERS_QCM,
max_awg_output_voltage=None,
mixer_dc_offset_range=BoundedParameter(min_val=-50, max_val=50, units="mV"),
channel_name_to_digital_marker={
"complex_output_0": 0b0001,
"complex_output_1": 0b0010,
# Note: indices 2 and 3 are for outputs 1 and 0.
"digital_output_1": 0b0100,
"digital_output_0": 0b1000,
},
default_markers={
"complex_output_0": 0b0001,
"complex_output_1": 0b0010,
# Note: indices 2 and 3 are for outputs 1 and 0.
"digital_output_1": 0b0011,
"digital_output_0": 0b0011,
},
)
[docs]
class QRMRFCompiler(RFModuleCompiler):
"""QRM-RF specific implementation of the qblox compiler."""
# Ignore pyright because a "static property" does not exist (in the standard library).
[docs]
supports_acquisition = True # type: ignore
[docs]
max_number_of_instructions = MAX_NUMBER_OF_INSTRUCTIONS_QRM # type: ignore
[docs]
static_hw_properties: StaticAnalogModuleProperties = StaticAnalogModuleProperties(
instrument_type="QRM_RF",
max_sequencers=NUMBER_OF_SEQUENCERS_QRM,
max_awg_output_voltage=None,
mixer_dc_offset_range=BoundedParameter(min_val=-50, max_val=50, units="mV"),
channel_name_to_digital_marker={
# bit index 0 is inactive
"complex_output_0": 0b0010,
"digital_output_0": 0b0100,
"digital_output_1": 0b1000,
},
default_markers={
"complex_input_0": 0b0010,
"complex_output_0": 0b0010,
"digital_output_0": 0b0010,
"digital_output_1": 0b0010,
},
)
[docs]
class QTMCompiler(compiler_abc.ClusterModuleCompiler):
"""
QTM specific implementation of the qblox compiler.
Parameters
----------
name
Name of the `QCoDeS` instrument this compiler object corresponds to.
total_play_time
Total time execution of the schedule should go on for. This parameter is
used to ensure that the different devices, potentially with different clock
rates, can work in a synchronized way when performing multiple executions of
the schedule.
instrument_cfg
The instrument compilation config referring to this device.
"""
[docs]
static_hw_properties: StaticTimetagModuleProperties = ( # type: ignore
StaticTimetagModuleProperties(
instrument_type="QTM",
max_sequencers=NUMBER_OF_SEQUENCERS_QTM,
)
)
def __init__(
self,
name: str,
total_play_time: float,
instrument_cfg: _ClusterModuleCompilationConfig,
) -> None:
super().__init__(
name=name,
total_play_time=total_play_time,
instrument_cfg=instrument_cfg,
)
[docs]
self.sequencers: dict[str, TimetagSequencerCompiler] = {}
[docs]
self._settings: TimetagModuleSettings = ( # type: ignore
TimetagModuleSettings.extract_settings_from_mapping(instrument_cfg)
)
@property
[docs]
def max_number_of_instructions(self) -> int:
"""The maximum number of Q1ASM instructions supported by this module type."""
return MAX_NUMBER_OF_INSTRUCTIONS_QTM
@property
[docs]
def supports_acquisition(self) -> bool:
"""Specifies whether the device can perform acquisitions."""
return True
[docs]
def _construct_sequencer_compiler(
self,
index: int, # noqa: ARG002 ignore unused argument
sequencer_cfg: _SequencerCompilationConfig,
) -> TimetagSequencerCompiler:
def get_index_from_channel_name() -> int:
"""
Get the sequencer index.
The QTM has no channel map yet, so the sequencer index = the channel index,
and there is always only one channel index.
"""
input_idx = self.static_hw_properties._get_connected_input_indices(
channel_name,
channel_name_measure,
)
output_idx = self.static_hw_properties._get_connected_output_indices(channel_name)
if len(input_idx) > 0:
return input_idx[0]
# If it's not an input channel, it must be an output channel.
return output_idx[0]
channel_name = sequencer_cfg.channel_name
channel_name_measure = sequencer_cfg.channel_name_measure
return TimetagSequencerCompiler(
parent=self,
index=get_index_from_channel_name(),
static_hw_properties=self.static_hw_properties,
sequencer_cfg=sequencer_cfg,
)
[docs]
def prepare(self, **kwargs) -> None: # noqa: ARG002 other kwargs are ignored
"""
Performs the logic needed before being able to start the compilation. In effect,
this means assigning the pulses and acquisitions to the sequencers and
calculating the relevant frequencies in case an external local oscillator is
used.
"""
self._construct_all_sequencer_compilers()
self.distribute_data()
for seq in self.sequencers.values():
seq.prepare()
[docs]
class ClusterCompiler(compiler_abc.InstrumentCompiler):
"""
Compiler class for a Qblox cluster.
Parameters
----------
name
Name of the `QCoDeS` instrument this compiler object corresponds to.
total_play_time
Total time execution of the schedule should go on for.
instrument_cfg
The instrument compiler config referring to this device.
"""
[docs]
compiler_classes: dict[str, type] = {
"QCM": QCMCompiler,
"QRM": QRMCompiler,
"QCM_RF": QCMRFCompiler,
"QRM_RF": QRMRFCompiler,
"QTM": QTMCompiler,
}
"""References to the individual module compiler classes that can be used by the
cluster."""
def __init__(
self,
name: str,
total_play_time: float,
instrument_cfg: _ClusterCompilationConfig,
) -> None:
super().__init__(
name=name,
total_play_time=total_play_time,
instrument_cfg=instrument_cfg,
)
[docs]
self.instrument_cfg: _ClusterCompilationConfig # Help typechecker
[docs]
self._op_infos: dict[tuple[str, str], list[OpInfo]] = defaultdict(list)
[docs]
self.instrument_compilers = self._construct_module_compilers()
[docs]
self.portclock_to_path = instrument_cfg.portclock_to_path
[docs]
def add_op_info(self, port: str, clock: str, op_info: OpInfo) -> None:
"""
Assigns a certain pulse or acquisition to this device.
Parameters
----------
port
The port this waveform is sent to (or acquired from).
clock
The clock for modulation of the pulse or acquisition. Can be a BasebandClock.
op_info
Data structure containing all the information regarding this specific
pulse or acquisition operation.
"""
self._op_infos[(port, clock)].append(op_info)
[docs]
def _construct_module_compilers(self) -> dict[str, AnalogModuleCompiler]:
"""
Constructs the compilers for the modules inside the cluster.
Returns
-------
:
A dictionary with the name of the module as key and the value its
compiler.
"""
module_compilers = {}
module_configs = self.instrument_cfg._extract_module_compilation_configs()
for module_idx, cfg in module_configs.items():
module_name = f"{self.name}_module{module_idx}"
compiler_type: type = self.compiler_classes[cfg.hardware_description.instrument_type]
module_compilers[module_name] = compiler_type(
name=module_name,
total_play_time=self.total_play_time,
instrument_cfg=cfg,
)
return module_compilers
[docs]
def prepare(
self,
external_los: dict[str, LocalOscillatorCompiler] | None = None,
schedule_resources: dict[str, Resource] | None = None,
**kwargs, # noqa: ARG002 other kwargs are ignored
) -> None:
"""
Prepares the instrument compiler for compilation by assigning the data.
Parameters
----------
external_los
Optional LO compiler objects representing external LOs, whose LO frequency
will be determined and set.
schedule_resources
Mapping from clock name to clock resource, which contains the clock frequency.
kwargs:
Potential keyword arguments for other compiler classes.
"""
self.distribute_data()
for compiler in self.instrument_compilers.values():
compiler.prepare(external_los=external_los, schedule_resources=schedule_resources)
[docs]
def distribute_data(self) -> None:
"""
Distributes the pulses and acquisitions assigned to the cluster over the
individual module compilers.
"""
for compiler in self.instrument_compilers.values():
for portclock in compiler.portclocks:
port, clock = portclock.split("-")
portclock_tuple = (port, clock)
if portclock_tuple in self._op_infos:
for pulse in self._op_infos[portclock_tuple]:
compiler.add_op_info(port, clock, pulse)
[docs]
def compile(self, debug_mode: bool, repetitions: int = 1) -> dict[str, Any]:
"""
Performs the compilation.
Parameters
----------
debug_mode
Debug mode can modify the compilation process,
so that debugging of the compilation process is easier.
repetitions
Amount of times to repeat execution of the schedule.
Returns
-------
:
The part of the compiled instructions relevant for this instrument.
"""
program = {}
program["settings"] = {"reference_source": self.instrument_cfg.hardware_description.ref}
sequence_to_file = self.instrument_cfg.hardware_description.sequence_to_file
for compiler in self.instrument_compilers.values():
instrument_program = compiler.compile(
repetitions=repetitions,
sequence_to_file=sequence_to_file,
debug_mode=debug_mode,
)
if instrument_program is not None and len(instrument_program) > 0:
program[compiler.name] = instrument_program
return program
