from .......Internal.Core import Core
from .......Internal.CommandsGroup import CommandsGroup
from .......Internal.StructBase import StructBase
from .......Internal.ArgStruct import ArgStruct
from ....... import repcap
# noinspection PyPep8Naming,PyAttributeOutsideInit,SpellCheckingInspection
class ExtremeCls:
"""
| Commands in total: 3
| Subgroups: 0
| Direct child commands: 3
"""
def __init__(self, core: Core, parent):
self._core = core
self._cmd_group = CommandsGroup("extreme", core, parent)
# noinspection PyTypeChecker
[docs]
class ResultData(StructBase):
"""
Response structure. Fields: \n
- 1 Reliability: int: 'Reliability indicator'
- 2 Out_Of_Tolerance: int: Out of tolerance result, i.e. the percentage of measurement intervals of the statistic count for modulation measurements exceeding the specified modulation limits.
- 3 Evm_Rms_Low: float: EVM RMS value, low EVM window position
- 4 Evm_Rms_High: float: EVM RMS value, high EVM window position
- 5 Evm_Peak_Low: float: EVM peak value, low EVM window position
- 6 Evm_Peak_High: float: EVM peak value, high EVM window position
- 7 Mag_Error_Rms_Low: float: Magnitude error RMS value, low EVM window position
- 8 Mag_Error_Rms_High: float: Magnitude error RMS value, low EVM window position
- 9 Mag_Error_Peak_Low: float: Magnitude error peak value, low EVM window position
- 10 Mag_Err_Peak_High: float: Magnitude error peak value, high EVM window position
- 11 Ph_Error_Rms_Low: float: Phase error RMS value, low EVM window position
- 12 Ph_Error_Rms_High: float: Phase error RMS value, high EVM window position
- 13 Ph_Error_Peak_Low: float: Phase error peak value, low EVM window position
- 14 Ph_Error_Peak_High: float: Phase error peak value, high EVM window position
- 15 Iq_Offset: float: I/Q origin offset
- 16 Frequency_Error: float: Carrier frequency error
- 17 Timing_Error: float: Time error
- 18 Tx_Power_Minimum: float: Minimum user equipment power
- 19 Tx_Power_Maximum: float: Maximum user equipment power
- 20 Peak_Power_Min: float: Minimum user equipment peak power
- 21 Peak_Power_Max: float: Maximum user equipment peak power
- 22 Psd_Minimum: float: No parameter help available
- 23 Psd_Maximum: float: No parameter help available
- 24 Evm_Dmrs_Low: float: EVM DMRS value, low EVM window position
- 25 Evm_Dmrs_High: float: EVM DMRS value, high EVM window position
- 26 Mag_Err_Dmrs_Low: float: Magnitude error DMRS value, low EVM window position
- 27 Mag_Err_Dmrs_High: float: Magnitude error DMRS value, high EVM window position
- 28 Ph_Error_Dmrs_Low: float: Phase error DMRS value, low EVM window position
- 29 Ph_Error_Dmrs_High: float: Phase error DMRS value, high EVM window position
- 30 Freq_Error_Ppm: float: Carrier frequency error in ppm
- 31 Sample_Clock_Err: float: No parameter help available
- 32 Ant_1_Pow_Min: float: Minimum power at antenna 1
- 33 Ant_1_Pow_Max: float: Maximum power at antenna 1
- 34 Ant_2_Pow_Min: float: Minimum power at antenna 2
- 35 Ant_2_Pow_Max: float: Maximum power at antenna 2
- 36 Carrier_Power_Min: float: No parameter help available
- 37 Carrier_Power_Max: float: No parameter help available
"""
__meta_args_list = [
ArgStruct.scalar_int('Reliability', 'Reliability'),
ArgStruct.scalar_int('Out_Of_Tolerance'),
ArgStruct.scalar_float('Evm_Rms_Low'),
ArgStruct.scalar_float('Evm_Rms_High'),
ArgStruct.scalar_float('Evm_Peak_Low'),
ArgStruct.scalar_float('Evm_Peak_High'),
ArgStruct.scalar_float('Mag_Error_Rms_Low'),
ArgStruct.scalar_float('Mag_Error_Rms_High'),
ArgStruct.scalar_float('Mag_Error_Peak_Low'),
ArgStruct.scalar_float('Mag_Err_Peak_High'),
ArgStruct.scalar_float('Ph_Error_Rms_Low'),
ArgStruct.scalar_float('Ph_Error_Rms_High'),
ArgStruct.scalar_float('Ph_Error_Peak_Low'),
ArgStruct.scalar_float('Ph_Error_Peak_High'),
ArgStruct.scalar_float('Iq_Offset'),
ArgStruct.scalar_float('Frequency_Error'),
ArgStruct.scalar_float('Timing_Error'),
ArgStruct.scalar_float('Tx_Power_Minimum'),
ArgStruct.scalar_float('Tx_Power_Maximum'),
ArgStruct.scalar_float('Peak_Power_Min'),
ArgStruct.scalar_float('Peak_Power_Max'),
ArgStruct.scalar_float('Psd_Minimum'),
ArgStruct.scalar_float('Psd_Maximum'),
ArgStruct.scalar_float('Evm_Dmrs_Low'),
ArgStruct.scalar_float('Evm_Dmrs_High'),
ArgStruct.scalar_float('Mag_Err_Dmrs_Low'),
ArgStruct.scalar_float('Mag_Err_Dmrs_High'),
ArgStruct.scalar_float('Ph_Error_Dmrs_Low'),
ArgStruct.scalar_float('Ph_Error_Dmrs_High'),
ArgStruct.scalar_float('Freq_Error_Ppm'),
ArgStruct.scalar_float('Sample_Clock_Err'),
ArgStruct.scalar_float('Ant_1_Pow_Min'),
ArgStruct.scalar_float('Ant_1_Pow_Max'),
ArgStruct.scalar_float('Ant_2_Pow_Min'),
ArgStruct.scalar_float('Ant_2_Pow_Max'),
ArgStruct.scalar_float('Carrier_Power_Min'),
ArgStruct.scalar_float('Carrier_Power_Max')]
def __init__(self):
StructBase.__init__(self, self)
self.Reliability: int = None
self.Out_Of_Tolerance: int = None
self.Evm_Rms_Low: float = None
self.Evm_Rms_High: float = None
self.Evm_Peak_Low: float = None
self.Evm_Peak_High: float = None
self.Mag_Error_Rms_Low: float = None
self.Mag_Error_Rms_High: float = None
self.Mag_Error_Peak_Low: float = None
self.Mag_Err_Peak_High: float = None
self.Ph_Error_Rms_Low: float = None
self.Ph_Error_Rms_High: float = None
self.Ph_Error_Peak_Low: float = None
self.Ph_Error_Peak_High: float = None
self.Iq_Offset: float = None
self.Frequency_Error: float = None
self.Timing_Error: float = None
self.Tx_Power_Minimum: float = None
self.Tx_Power_Maximum: float = None
self.Peak_Power_Min: float = None
self.Peak_Power_Max: float = None
self.Psd_Minimum: float = None
self.Psd_Maximum: float = None
self.Evm_Dmrs_Low: float = None
self.Evm_Dmrs_High: float = None
self.Mag_Err_Dmrs_Low: float = None
self.Mag_Err_Dmrs_High: float = None
self.Ph_Error_Dmrs_Low: float = None
self.Ph_Error_Dmrs_High: float = None
self.Freq_Error_Ppm: float = None
self.Sample_Clock_Err: float = None
self.Ant_1_Pow_Min: float = None
self.Ant_1_Pow_Max: float = None
self.Ant_2_Pow_Min: float = None
self.Ant_2_Pow_Max: float = None
self.Carrier_Power_Min: float = None
self.Carrier_Power_Max: float = None
[docs]
def read(self, carrierComponent=repcap.CarrierComponent.Default, layer=repcap.Layer.Default) -> ResultData:
"""
``READ:NRSub:MEASurement<Instance>:MEValuation[:CC<no>][:LAYer<layer>]:MODulation:EXTReme`` \n
Snippet: ``value: ResultData = driver.nrSubMeas.multiEval.cc.layer.modulation.extreme.read(carrierComponent = repcap.CarrierComponent.Default, layer = repcap.Layer.Default)`` \n
Return the extreme single value results for carrier <no>, layer/antenna <l>. The values described below are returned by
FETCh and READ commands. A CALCulate command returns limit check results instead, one value for each result listed below.
:param carrierComponent: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Cc')
:param layer: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Layer')
:return: structure: for return value, see the help for ResultData structure arguments.
"""
carrierComponent_cmd_val = self._cmd_group.get_repcap_cmd_value(carrierComponent, repcap.CarrierComponent)
layer_cmd_val = self._cmd_group.get_repcap_cmd_value(layer, repcap.Layer)
return self._core.io.query_struct(f'READ:NRSub:MEASurement<Instance>:MEValuation:CC{carrierComponent_cmd_val}:LAYer{layer_cmd_val}:MODulation:EXTReme?', self.__class__.ResultData())
[docs]
def fetch(self, carrierComponent=repcap.CarrierComponent.Default, layer=repcap.Layer.Default) -> ResultData:
"""
``FETCh:NRSub:MEASurement<Instance>:MEValuation[:CC<no>][:LAYer<layer>]:MODulation:EXTReme`` \n
Snippet: ``value: ResultData = driver.nrSubMeas.multiEval.cc.layer.modulation.extreme.fetch(carrierComponent = repcap.CarrierComponent.Default, layer = repcap.Layer.Default)`` \n
Return the extreme single value results for carrier <no>, layer/antenna <l>. The values described below are returned by
FETCh and READ commands. A CALCulate command returns limit check results instead, one value for each result listed below.
:param carrierComponent: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Cc')
:param layer: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Layer')
:return: structure: for return value, see the help for ResultData structure arguments.
"""
carrierComponent_cmd_val = self._cmd_group.get_repcap_cmd_value(carrierComponent, repcap.CarrierComponent)
layer_cmd_val = self._cmd_group.get_repcap_cmd_value(layer, repcap.Layer)
return self._core.io.query_struct(f'FETCh:NRSub:MEASurement<Instance>:MEValuation:CC{carrierComponent_cmd_val}:LAYer{layer_cmd_val}:MODulation:EXTReme?', self.__class__.ResultData())
# noinspection PyTypeChecker
[docs]
class CalculateStruct(StructBase):
"""
Response structure. Fields: \n
- 1 Reliability: int: 'Reliability indicator'
- 2 Out_Of_Tolerance: int: Out of tolerance result, i.e. the percentage of measurement intervals of the statistic count for modulation measurements exceeding the specified modulation limits.
- 3 Evm_Rms_Low: float | bool: EVM RMS value, low EVM window position
- 4 Evm_Rms_High: float | bool: EVM RMS value, high EVM window position
- 5 Evm_Peak_Low: float | bool: EVM peak value, low EVM window position
- 6 Evm_Peak_High: float | bool: EVM peak value, high EVM window position
- 7 Mag_Error_Rms_Low: float | bool: Magnitude error RMS value, low EVM window position
- 8 Mag_Error_Rms_High: float | bool: Magnitude error RMS value, low EVM window position
- 9 Mag_Error_Peak_Low: float | bool: Magnitude error peak value, low EVM window position
- 10 Mag_Err_Peak_High: float | bool: Magnitude error peak value, high EVM window position
- 11 Ph_Error_Rms_Low: float | bool: Phase error RMS value, low EVM window position
- 12 Ph_Error_Rms_High: float | bool: Phase error RMS value, high EVM window position
- 13 Ph_Error_Peak_Low: float | bool: Phase error peak value, low EVM window position
- 14 Ph_Error_Peak_High: float | bool: Phase error peak value, high EVM window position
- 15 Iq_Offset: float | bool: I/Q origin offset
- 16 Frequency_Error: float | bool: Carrier frequency error
- 17 Timing_Error: float | bool: Time error
- 18 Tx_Power_Minimum: float | bool: Minimum user equipment power
- 19 Tx_Power_Maximum: float | bool: Maximum user equipment power
- 20 Peak_Power_Min: float | bool: Minimum user equipment peak power
- 21 Peak_Power_Max: float | bool: Maximum user equipment peak power
- 22 Psd_Minimum: float | bool: No parameter help available
- 23 Psd_Maximum: float | bool: No parameter help available
- 24 Evm_Dmrs_Low: float | bool: EVM DMRS value, low EVM window position
- 25 Evm_Dmrs_High: float | bool: EVM DMRS value, high EVM window position
- 26 Mag_Err_Dmrs_Low: float | bool: Magnitude error DMRS value, low EVM window position
- 27 Mag_Err_Dmrs_High: float | bool: Magnitude error DMRS value, high EVM window position
- 28 Ph_Error_Dmrs_Low: float | bool: Phase error DMRS value, low EVM window position
- 29 Ph_Error_Dmrs_High: float | bool: Phase error DMRS value, high EVM window position
- 30 Freq_Error_Ppm: float | bool: Carrier frequency error in ppm
- 31 Sample_Clock_Err: float | bool: No parameter help available
- 32 Ant_1_Pow_Min: float: Minimum power at antenna 1
- 33 Ant_1_Pow_Max: float: Maximum power at antenna 1
- 34 Ant_2_Pow_Min: float: Minimum power at antenna 2
- 35 Ant_2_Pow_Max: float: Maximum power at antenna 2
- 36 Carrier_Power_Min: float | bool: No parameter help available
- 37 Carrier_Power_Max: float | bool: No parameter help available
"""
__meta_args_list = [
ArgStruct.scalar_int('Reliability', 'Reliability'),
ArgStruct.scalar_int('Out_Of_Tolerance'),
ArgStruct.scalar_float_ext('Evm_Rms_Low'),
ArgStruct.scalar_float_ext('Evm_Rms_High'),
ArgStruct.scalar_float_ext('Evm_Peak_Low'),
ArgStruct.scalar_float_ext('Evm_Peak_High'),
ArgStruct.scalar_float_ext('Mag_Error_Rms_Low'),
ArgStruct.scalar_float_ext('Mag_Error_Rms_High'),
ArgStruct.scalar_float_ext('Mag_Error_Peak_Low'),
ArgStruct.scalar_float_ext('Mag_Err_Peak_High'),
ArgStruct.scalar_float_ext('Ph_Error_Rms_Low'),
ArgStruct.scalar_float_ext('Ph_Error_Rms_High'),
ArgStruct.scalar_float_ext('Ph_Error_Peak_Low'),
ArgStruct.scalar_float_ext('Ph_Error_Peak_High'),
ArgStruct.scalar_float_ext('Iq_Offset'),
ArgStruct.scalar_float_ext('Frequency_Error'),
ArgStruct.scalar_float_ext('Timing_Error'),
ArgStruct.scalar_float_ext('Tx_Power_Minimum'),
ArgStruct.scalar_float_ext('Tx_Power_Maximum'),
ArgStruct.scalar_float_ext('Peak_Power_Min'),
ArgStruct.scalar_float_ext('Peak_Power_Max'),
ArgStruct.scalar_float_ext('Psd_Minimum'),
ArgStruct.scalar_float_ext('Psd_Maximum'),
ArgStruct.scalar_float_ext('Evm_Dmrs_Low'),
ArgStruct.scalar_float_ext('Evm_Dmrs_High'),
ArgStruct.scalar_float_ext('Mag_Err_Dmrs_Low'),
ArgStruct.scalar_float_ext('Mag_Err_Dmrs_High'),
ArgStruct.scalar_float_ext('Ph_Error_Dmrs_Low'),
ArgStruct.scalar_float_ext('Ph_Error_Dmrs_High'),
ArgStruct.scalar_float_ext('Freq_Error_Ppm'),
ArgStruct.scalar_float_ext('Sample_Clock_Err'),
ArgStruct.scalar_float('Ant_1_Pow_Min'),
ArgStruct.scalar_float('Ant_1_Pow_Max'),
ArgStruct.scalar_float('Ant_2_Pow_Min'),
ArgStruct.scalar_float('Ant_2_Pow_Max'),
ArgStruct.scalar_float_ext('Carrier_Power_Min'),
ArgStruct.scalar_float_ext('Carrier_Power_Max')]
def __init__(self):
StructBase.__init__(self, self)
self.Reliability: int = None
self.Out_Of_Tolerance: int = None
self.Evm_Rms_Low: float | bool = None
self.Evm_Rms_High: float | bool = None
self.Evm_Peak_Low: float | bool = None
self.Evm_Peak_High: float | bool = None
self.Mag_Error_Rms_Low: float | bool = None
self.Mag_Error_Rms_High: float | bool = None
self.Mag_Error_Peak_Low: float | bool = None
self.Mag_Err_Peak_High: float | bool = None
self.Ph_Error_Rms_Low: float | bool = None
self.Ph_Error_Rms_High: float | bool = None
self.Ph_Error_Peak_Low: float | bool = None
self.Ph_Error_Peak_High: float | bool = None
self.Iq_Offset: float | bool = None
self.Frequency_Error: float | bool = None
self.Timing_Error: float | bool = None
self.Tx_Power_Minimum: float | bool = None
self.Tx_Power_Maximum: float | bool = None
self.Peak_Power_Min: float | bool = None
self.Peak_Power_Max: float | bool = None
self.Psd_Minimum: float | bool = None
self.Psd_Maximum: float | bool = None
self.Evm_Dmrs_Low: float | bool = None
self.Evm_Dmrs_High: float | bool = None
self.Mag_Err_Dmrs_Low: float | bool = None
self.Mag_Err_Dmrs_High: float | bool = None
self.Ph_Error_Dmrs_Low: float | bool = None
self.Ph_Error_Dmrs_High: float | bool = None
self.Freq_Error_Ppm: float | bool = None
self.Sample_Clock_Err: float | bool = None
self.Ant_1_Pow_Min: float = None
self.Ant_1_Pow_Max: float = None
self.Ant_2_Pow_Min: float = None
self.Ant_2_Pow_Max: float = None
self.Carrier_Power_Min: float | bool = None
self.Carrier_Power_Max: float | bool = None
[docs]
def calculate(self, carrierComponent=repcap.CarrierComponent.Default, layer=repcap.Layer.Default) -> CalculateStruct:
"""
``CALCulate:NRSub:MEASurement<Instance>:MEValuation[:CC<no>][:LAYer<layer>]:MODulation:EXTReme`` \n
Snippet: ``value: CalculateStruct = driver.nrSubMeas.multiEval.cc.layer.modulation.extreme.calculate(carrierComponent = repcap.CarrierComponent.Default, layer = repcap.Layer.Default)`` \n
Return the extreme single value results for carrier <no>, layer/antenna <l>. The values described below are returned by
FETCh and READ commands. A CALCulate command returns limit check results instead, one value for each result listed below.
:param carrierComponent: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Cc')
:param layer: optional repeated capability selector. Default value: Nr1 (settable in the interface 'Layer')
:return: structure: for return value, see the help for CalculateStruct structure arguments.
"""
carrierComponent_cmd_val = self._cmd_group.get_repcap_cmd_value(carrierComponent, repcap.CarrierComponent)
layer_cmd_val = self._cmd_group.get_repcap_cmd_value(layer, repcap.Layer)
return self._core.io.query_struct(f'CALCulate:NRSub:MEASurement<Instance>:MEValuation:CC{carrierComponent_cmd_val}:LAYer{layer_cmd_val}:MODulation:EXTReme?', self.__class__.CalculateStruct())