failure_mode_sensor_analysis

Question: For compressor, if a failure event valve fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- coast down
- oil leakage/ consumption
- pressure or vacuum
- cylinder pressure
- oil debris
- fluid leakage
- compresor pressure/ pressure ratio
- frequency response analysis (fra)
- temperature
- vibration


failure_mode_sensor_analysis

Question: When considering valve fault in compressor, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- length
- oil leakage
- exhaust temperature
- vibration
- fluid leakage
- ultrasound
- pressure or vacuum
- cooling gas
- temperature
- turbine efficiency


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of mounting fault in compressor?

Choices:
- length
- air leakage
- coast down
- fluid leakage
- ultrasound
- exhaust temperature
- dissolved gas analysis
- cylinder pressure
- oil debris/ contamination
- vibration


failure_mode_sensor_analysis

Question: In compressor, which sensor among the choices is least useful for detecting mounting fault?

Choices:
- compressor pressure
- leak reactance flux
- power turbine temperature
- length measurement
- exhaust pressure
- bushing capacitance
- pressure (head)
- fuel flow
- compresor pressure/ pressure ratio
- vibration


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting mounting fault in compressor?

Choices:
- cylinder pressure
- gas generator temperature
- turbine efficiency
- air leakage
- voltage
- ultrasound
- vibration
- power
- cooling fluid leak
- length


failure_mode_sensor_analysis

Question: When a compressor has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- compresor pressure/ pressure ratio
- visual
- engine temperature
- pressure or vacuum
- electrical phase
- coast down
- compressor efficiency
- fuel flow
- output power
- vibration


failure_mode_sensor_analysis

Question: When a compressor has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- gas generator temperature
- current
- oil leakage/ consumption
- exhaust temperature
- vibration
- bushing capacitance
- cooling fluid leak
- axial flux
- compressor efficiency
- speed


failure_mode_sensor_analysis

Question: When considering mounting fault in compressor, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- air leakage
- compressor efficiency
- amps/ volts/ load
- leak reactance flux
- temperature
- power turbine temperature
- oil leakage/ consumption
- electrical phase
- vibration
- gas generator temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of mounting fault in asset compressor?

Choices:
- turbine efficiency
- compressor efficiency
- cooling gas
- voltage
- power factor
- vibration
- coast down time
- cylinder pressure
- engine temperature
- current


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of mounting fault in asset compressor?

Choices:
- compressor temperature
- bushing capacitance
- current
- exhaust temperature
- oil debris
- ultrasound
- fuel pressure
- air leakage
- exhaust pressure
- vibration


failure_mode_sensor_analysis

Question: When a compressor has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- cooling fluid leak
- vibration
- coast down
- fuel pressure
- compressor pressure
- power factor
- frequency response analysis (fra)
- dissolved gas analysis
- oil leakage
- resistance


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of compressor stall in asset compressor?

Choices:
- vibration
- fuel pressure
- length measurement
- fluid leakage
- speed
- gas generator temperature
- turbine efficiency
- amps/ volts/ load
- compressor efficiency
- cylinder pressure


failure_mode_sensor_analysis

Question: When considering compressor stall in compressor, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- compressor pressure
- voltage
- vibration
- speed
- fuel flow
- length measurement
- frequency response analysis (fra)
- power
- gas generator temperature
- ultrasound


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of compressor stall in asset compressor?

Choices:
- air leakage
- length measurement
- vibration
- electrical phase
- resistance
- speed
- voltage
- pressure or vacuum
- oil debris/ contamination
- current


failure_mode_sensor_analysis

Question: In compressor, which sensor among the choices is least useful for detecting compressor stall?

Choices:
- length measurement
- temperature
- pressure (head)
- steam leakage
- exhaust temperature
- vibration
- axial flux
- current
- compressor efficiency
- speed


failure_mode_sensor_analysis

Question: When a compressor has compressor stall, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- vibration
- dissolved gas analysis
- frequency response analysis (fra)
- coast down time
- speed
- cooling gas
- oil debris/ contamination
- visual
- compresor pressure/ pressure ratio
- length measurement


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of compressor stall in asset compressor?

Choices:
- length measurement
- speed
- oil debris
- fuel pressure
- exhaust pressure
- compressor pressure
- amps/ volts/ load
- vibration
- electrical phase
- visual


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of compressor stall in compressor?

Choices:
- air leakage
- oil condition
- current
- exhaust pressure
- vibration
- frequency response analysis (fra)
- oil leakage
- length measurement
- speed
- pressure (head)


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in compressor?

Choices:
- fluid leakage
- power turbine temperature
- engine temperature
- compressor temperature
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- air leakage
- compressor pressure
- electrical phase
- vibration
- steam leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of unbalance in asset compressor?

Choices:
- oil leakage/ consumption
- pressure (head)
- fuel pressure
- coast down
- length
- exhaust pressure
- partial discharge
- length measurement
- voltage
- vibration


failure_mode_sensor_analysis

Question: For compressor, if unbalance occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- steam leakage
- power factor
- length
- excitation current
- amps/ volts/ load
- power
- cooling fluid leak
- cooling gas
- visual
- vibration


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting unbalance in compressor?

Choices:
- bushing capacitance
- fuel pressure
- turbine efficiency
- air leakage
- pressure or vacuum
- excitation current
- oil condition
- cooling fluid leak
- vibration
- axial flux


failure_mode_sensor_analysis

Question: For compressor, if a failure event unbalance occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- dissolved gas analysis
- resistance
- vibration
- engine temperature
- bushing capacitance
- speed
- oil debris/ contamination
- leak reactance flux
- electrical phase
- exhaust pressure


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting unbalance in compressor?

Choices:
- partial discharge
- gas generator temperature
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- resistance
- cooling gas
- vibration
- steam leakage
- engine temperature
- excitation current
- temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in compressor?

Choices:
- bushing capacitance
- vibration
- ultrasound
- coast down time
- leak reactance flux
- power factor
- compresor pressure/ pressure ratio
- electrical phase
- voltage
- cooling gas


failure_mode_sensor_analysis

Question: For compressor, if a failure event unbalance occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- vibration
- engine temperature
- exhaust pressure
- current
- compressor efficiency
- air leakage
- cylinder pressure
- ultrasound
- steam leakage
- oil debris


failure_mode_sensor_analysis

Question: In compressor, which sensor among the choices is least useful for detecting unbalance?

Choices:
- amps/ volts/ load
- gas generator temperature
- output power
- oil leakage
- dissolved gas analysis
- compresor pressure/ pressure ratio
- oil leakage/ consumption
- vibration
- ultrasound
- fuel flow


failure_mode_sensor_analysis

Question: When a compressor has misalignment, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- electrical phase
- dissolved gas analysis
- pressure (head)
- length measurement
- vibration
- excitation current
- fluid leakage
- power factor
- oil debris/ contamination
- fuel pressure


failure_mode_sensor_analysis

Question: In compressor, which sensor among the choices is least useful for detecting misalignment?

Choices:
- cylinder pressure
- resistance
- power factor
- length measurement
- leak reactance flux
- power
- steam leakage
- cooling fluid leak
- vibration
- excitation current


failure_mode_sensor_analysis

Question: For compressor, if a failure event misalignment occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- coast down
- vibration
- compressor temperature
- axial flux
- length measurement
- ultrasound
- frequency response analysis (fra)
- cooling gas
- pressure or vacuum
- electrical phase


failure_mode_sensor_analysis

Question: When considering misalignment in compressor, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- cylinder pressure
- length measurement
- vibration
- engine temperature
- electrical phase
- leak reactance flux
- dissolved gas analysis
- speed
- compressor pressure
- gas generator temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in compressor?

Choices:
- temperature
- excitation current
- cooling gas
- axial flux
- resistance
- dissolved gas analysis
- length measurement
- compressor pressure
- bushing capacitance
- vibration


failure_mode_sensor_analysis

Question: When considering misalignment in compressor, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- oil debris/ contamination
- vibration
- power factor
- compresor pressure/ pressure ratio
- axial flux
- coast down time
- compressor temperature
- length measurement
- radio frequency emissions
- coast down


failure_mode_sensor_analysis

Question: In compressor, which sensor among the choices is least useful for detecting misalignment?

Choices:
- compressor temperature
- oil condition
- oil leakage/ consumption
- ultrasound
- frequency response analysis (fra)
- oil debris
- fuel flow
- vibration
- length measurement
- radio frequency emissions


failure_mode_sensor_analysis

Question: For compressor, if a failure event misalignment occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- vibration
- cooling fluid leak
- oil leakage/ consumption
- length
- air leakage
- steam leakage
- fuel pressure
- pressure (head)
- length measurement
- oil leakage


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event air inlet blockage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- exhaust pressure
- air flow
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- power
- engine temperature
- cylinder pressure
- current
- fuel pressure
- fluid flow
- bushing capacitance


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting air inlet blockage in reciprocating internal combustion engine?

Choices:
- power
- oil condition
- exhaust pressure
- power factor
- fluid flow
- engine temperature
- cylinder pressure
- oil leakage
- fuel flow
- air flow


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event air inlet blockage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- air flow
- compresor pressure/ pressure ratio
- cylinder pressure
- exhaust temperature
- leak reactance flux
- compressor efficiency
- pressure or vacuum
- engine temperature
- exhaust pressure
- angular position


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if air inlet blockage occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- oil leakage/ consumption
- engine temperature
- power factor
- axial flux
- fluid leakage
- vibration
- air flow
- cylinder pressure
- coast down
- exhaust pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of air inlet blockage in reciprocating internal combustion engine?

Choices:
- coast down
- output power
- length measurement
- excitation current
- exhaust pressure
- compressor efficiency
- cylinder pressure
- air flow
- oil leakage/ consumption
- engine temperature


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has air inlet blockage, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- compressor pressure
- oil consumption
- cylinder pressure
- air flow
- pressure (head)
- voltage
- compressor efficiency
- oil debris/ contamination
- engine temperature
- exhaust pressure


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if air inlet blockage occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- angular position
- oil debris
- air leakage
- exhaust pressure
- air flow
- oil debris/ contamination
- fluid leakage
- cylinder pressure
- pressure (head)
- engine temperature


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if air inlet blockage occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- oil condition
- cooling fluid leak
- length measurement
- oil leakage/ consumption
- engine temperature
- cylinder pressure
- exhaust pressure
- visual
- coast down time
- air flow


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting fuel injector fault in reciprocating internal combustion engine?

Choices:
- output power
- bushing capacitance
- electrical phase
- air flow
- oil consumption
- pressure ratio
- steam leakage
- fuel pressure
- power factor
- fuel flow


failure_mode_sensor_analysis

Question: When considering fuel injector fault in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- compressor pressure
- radio frequency emissions
- coast down
- angular position
- output power
- engine temperature
- cylinder pressure
- power factor
- fuel flow
- exhaust pressure


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has fuel injector fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- exhaust temperature
- engine temperature
- oil debris
- excitation current
- output power
- cooling gas
- fluid leakage
- oil leakage/ consumption
- oil consumption


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of fuel injector fault in reciprocating internal combustion engine?

Choices:
- cooling fluid leak
- vibration
- air flow
- fluid leakage
- ultrasound
- compressor efficiency
- fuel flow
- oil consumption
- air leakage
- voltage


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event ignition fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- voltage
- air leakage
- dissolved gas analysis
- oil consumption
- vibration
- fluid leakage
- compresor pressure/ pressure ratio
- engine temperature
- exhaust temperature
- air flow


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has ignition fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- engine temperature
- oil debris/ contamination
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- fuel pressure
- coast down time
- output power
- fuel flow
- dissolved gas analysis
- cylinder pressure
- length measurement


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has ignition fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- fluid leakage
- coast down
- engine temperature
- axial flux
- fuel flow
- exhaust pressure
- resistance
- coast down time
- vibration
- exhaust temperature


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event ignition fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- length measurement
- oil leakage
- fuel flow
- engine temperature
- vibration
- exhaust temperature
- compressor temperature
- compressor efficiency
- oil debris
- resistance


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of ignition fault in asset reciprocating internal combustion engine?

Choices:
- turbine efficiency
- oil consumption
- bushing capacitance
- engine temperature
- frequency response analysis (fra)
- cooling fluid leak
- fuel flow
- voltage
- output power
- oil debris/ contamination


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event bearing wear occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- vibration
- power
- engine temperature
- voltage
- frequency response analysis (fra)
- cooling gas
- oil debris
- pressure or vacuum
- steam leakage
- amps/ volts/ load


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event bearing wear occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil leakage/ consumption
- vibration
- cylinder pressure
- oil leakage
- oil debris
- power factor
- coast down time
- visual
- pressure (head)
- dissolved gas analysis


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting bearing wear?

Choices:
- electrical phase
- vibration
- air flow
- oil debris
- ultrasound
- oil condition
- length
- oil debris/ contamination
- bushing capacitance
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if bearing wear occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- steam leakage
- oil debris/ contamination
- radio frequency emissions
- compressor efficiency
- vibration
- oil leakage
- fluid leakage
- fuel pressure
- oil debris
- resistance


failure_mode_sensor_analysis

Question: When considering bearing wear in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- cooling gas
- vibration
- length measurement
- dissolved gas analysis
- partial discharge
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- compresor pressure/ pressure ratio
- electrical phase
- oil debris
- fuel flow


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if bearing wear occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- vibration
- coast down time
- pressure or vacuum
- oil debris
- axial flux
- exhaust temperature
- compressor pressure
- air leakage
- excitation current
- length


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event bearing wear occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- vibration
- dissolved gas analysis
- oil leakage/ consumption
- ultrasound
- amps/ volts/ load
- oil debris
- bushing capacitance
- compresor pressure/ pressure ratio
- exhaust pressure
- input power


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of bearing wear in reciprocating internal combustion engine?

Choices:
- oil debris
- vibration
- oil condition
- output power
- excitation current
- leak reactance flux
- pressure ratio
- coast down
- fluid flow
- compressor temperature


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has bearing wear, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- steam leakage
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- oil consumption
- radio frequency emissions
- power
- pressure (head)
- oil debris
- gas generator temperature
- vibration
- length measurement


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has bearing wear, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- power turbine temperature
- cooling gas
- oil debris
- voltage
- cooling fluid leak
- pressure or vacuum
- amps/ volts/ load
- coast down time
- vibration
- oil debris/ contamination


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting fuel filter blockage?

Choices:
- turbine efficiency
- axial flux
- exhaust pressure
- amps/ volts/ load
- engine temperature
- radio frequency emissions
- oil leakage
- fuel flow
- fuel pressure
- compressor pressure


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event fuel filter blockage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- power turbine temperature
- cylinder pressure
- fuel pressure
- leak reactance flux
- electrical phase
- coast down time
- current
- fuel flow
- exhaust pressure
- voltage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of fuel filter blockage in asset reciprocating internal combustion engine?

Choices:
- fuel flow
- air flow
- exhaust pressure
- coast down
- leak reactance flux
- dissolved gas analysis
- fluid leakage
- fuel pressure
- pressure or vacuum
- compressor temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of fuel filter blockage in asset reciprocating internal combustion engine?

Choices:
- power
- electrical phase
- fuel flow
- pressure or vacuum
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- fuel pressure
- oil debris/ contamination
- oil condition
- exhaust temperature
- exhaust pressure


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has fuel filter blockage, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- gas generator temperature
- air leakage
- pressure ratio
- exhaust pressure
- vibration
- coast down time
- cooling gas
- angular position
- fuel flow
- fuel pressure


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting fuel filter blockage in reciprocating internal combustion engine?

Choices:
- compressor pressure
- compressor temperature
- oil leakage
- power
- pressure ratio
- output power
- exhaust pressure
- length
- fuel pressure
- fuel flow


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event fuel filter blockage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- visual
- fuel pressure
- coast down time
- oil consumption
- exhaust pressure
- coast down
- fuel flow
- dissolved gas analysis
- steam leakage
- compressor temperature


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting fuel filter blockage in reciprocating internal combustion engine?

Choices:
- oil debris
- fuel pressure
- fluid flow
- angular position
- oil condition
- fuel flow
- turbine efficiency
- exhaust pressure
- ultrasound
- length measurement


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting fuel filter blockage?

Choices:
- steam leakage
- exhaust pressure
- fuel pressure
- cooling fluid leak
- compressor pressure
- fuel flow
- oil leakage/ consumption
- axial flux
- compresor pressure/ pressure ratio
- excitation current


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of seal leakage in reciprocating internal combustion engine?

Choices:
- exhaust temperature
- engine temperature
- cooling gas
- pressure (head)
- oil consumption
- compresor pressure/ pressure ratio
- exhaust pressure
- pressure ratio
- length measurement
- radio frequency emissions


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of seal leakage in asset reciprocating internal combustion engine?

Choices:
- oil leakage/ consumption
- compressor efficiency
- air leakage
- bushing capacitance
- exhaust temperature
- cylinder pressure
- turbine efficiency
- excitation current
- oil consumption
- exhaust pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of seal leakage in reciprocating internal combustion engine?

Choices:
- air flow
- compressor temperature
- voltage
- gas generator temperature
- exhaust temperature
- electrical phase
- oil consumption
- input power
- power turbine temperature
- exhaust pressure


failure_mode_sensor_analysis

Question: When considering seal leakage in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- exhaust temperature
- axial flux
- amps/ volts/ load
- radio frequency emissions
- fuel pressure
- exhaust pressure
- current
- oil consumption
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- excitation current


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of seal leakage in reciprocating internal combustion engine?

Choices:
- leak reactance flux
- oil consumption
- power factor
- fuel flow
- exhaust temperature
- exhaust pressure
- axial flux
- cooling gas
- oil debris/ contamination
- air leakage


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if seal leakage occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- amps/ volts/ load
- coast down
- visual
- vibration
- oil consumption
- air leakage
- voltage
- exhaust temperature
- exhaust pressure
- input power


failure_mode_sensor_analysis

Question: When considering seal leakage in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- partial discharge
- oil consumption
- radio frequency emissions
- oil debris/ contamination
- pressure (head)
- exhaust temperature
- leak reactance flux
- pressure or vacuum
- exhaust pressure
- output power


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event seal leakage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- exhaust pressure
- oil debris
- angular position
- compressor pressure
- compresor pressure/ pressure ratio
- length measurement
- oil leakage
- exhaust temperature
- oil consumption
- axial flux


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting seal leakage in reciprocating internal combustion engine?

Choices:
- voltage
- oil debris/ contamination
- exhaust temperature
- fluid flow
- leak reactance flux
- amps/ volts/ load
- turbine efficiency
- exhaust pressure
- cooling fluid leak
- oil consumption


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of piston ring fault in reciprocating internal combustion engine?

Choices:
- pressure or vacuum
- steam leakage
- oil debris
- input power
- output power
- cylinder pressure
- oil consumption
- amps/ volts/ load
- length measurement
- engine temperature


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting piston ring fault?

Choices:
- output power
- oil consumption
- oil debris
- air flow
- power factor
- voltage
- compressor pressure
- oil debris/ contamination
- resistance
- cylinder pressure


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if piston ring fault occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- oil leakage
- electrical phase
- pressure (head)
- power factor
- oil debris
- oil debris/ contamination
- cylinder pressure
- fuel pressure
- output power
- oil consumption


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has piston ring fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- cylinder pressure
- leak reactance flux
- output power
- frequency response analysis (fra)
- oil consumption
- oil debris
- excitation current
- pressure (head)
- fuel flow
- current


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event piston ring fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- cylinder pressure
- oil consumption
- output power
- angular position
- compressor temperature
- exhaust temperature
- gas generator temperature
- current
- leak reactance flux
- oil debris


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting piston ring fault in reciprocating internal combustion engine?

Choices:
- coast down time
- pressure or vacuum
- cylinder pressure
- exhaust pressure
- output power
- oil consumption
- bushing capacitance
- oil debris
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if piston ring fault occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- compresor pressure/ pressure ratio
- output power
- oil debris
- cylinder pressure
- oil consumption
- dissolved gas analysis
- vibration
- power factor
- coast down time
- steam leakage


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting piston ring fault?

Choices:
- output power
- oil debris
- voltage
- cylinder pressure
- pressure ratio
- oil consumption
- fluid flow
- cooling fluid leak
- input power
- power


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting cooling system fault?

Choices:
- oil consumption
- engine temperature
- excitation current
- dissolved gas analysis
- oil debris
- fuel flow
- cooling gas
- exhaust pressure
- oil leakage
- gas generator temperature


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting cooling system fault in reciprocating internal combustion engine?

Choices:
- cylinder pressure
- fuel flow
- oil consumption
- ultrasound
- cooling fluid leak
- bushing capacitance
- steam leakage
- oil debris
- axial flux
- length measurement


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event cooling system fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- steam leakage
- cooling gas
- electrical phase
- voltage
- exhaust pressure
- fuel flow
- oil debris
- visual
- cooling fluid leak
- air flow


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event cooling system fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- coast down time
- oil consumption
- oil debris
- fuel pressure
- compressor pressure
- input power
- oil condition
- cooling fluid leak
- fuel flow
- leak reactance flux


failure_mode_sensor_analysis

Question: When considering cooling system fault in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- cooling fluid leak
- partial discharge
- visual
- exhaust pressure
- length measurement
- steam leakage
- oil leakage
- fuel flow
- exhaust temperature
- oil consumption


failure_mode_sensor_analysis

Question: When considering cooling system fault in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- coast down time
- fuel flow
- exhaust pressure
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- pressure (head)
- oil consumption
- cooling fluid leak
- axial flux
- vibration
- bushing capacitance


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of cooling system fault in reciprocating internal combustion engine?

Choices:
- oil debris/ contamination
- coast down time
- radio frequency emissions
- cooling fluid leak
- voltage
- output power
- bushing capacitance
- exhaust pressure
- oil debris
- oil consumption


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has secondary balance gear fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- radio frequency emissions
- vibration
- compressor temperature
- turbine efficiency
- coast down time
- current
- leak reactance flux
- length measurement
- engine temperature
- dissolved gas analysis


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting secondary balance gear fault in reciprocating internal combustion engine?

Choices:
- fluid leakage
- vibration
- leak reactance flux
- oil condition
- cylinder pressure
- axial flux
- compressor temperature
- partial discharge
- steam leakage
- gas generator temperature


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting secondary balance gear fault?

Choices:
- pressure (head)
- electrical phase
- vibration
- pressure ratio
- air leakage
- oil leakage/ consumption
- steam leakage
- air flow
- length
- oil debris/ contamination


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of secondary balance gear fault in asset reciprocating internal combustion engine?

Choices:
- axial flux
- bushing capacitance
- angular position
- vibration
- pressure ratio
- input power
- coast down
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- air leakage
- fuel pressure


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has secondary balance gear fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- fuel flow
- visual
- resistance
- excitation current
- electrical phase
- ultrasound
- gas generator temperature
- air leakage
- vibration
- oil condition


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting secondary balance gear fault in reciprocating internal combustion engine?

Choices:
- exhaust temperature
- frequency response analysis (fra)
- air leakage
- oil leakage
- cooling gas
- vibration
- coast down time
- visual
- axial flux
- power turbine temperature


failure_mode_sensor_analysis

Question: When considering secondary balance gear fault in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- fluid flow
- turbine efficiency
- leak reactance flux
- exhaust pressure
- pressure or vacuum
- compressor pressure
- compressor efficiency
- oil condition
- vibration
- fluid leakage


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has secondary balance gear fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- bushing capacitance
- power turbine temperature
- input power
- turbine efficiency
- output power
- radio frequency emissions
- coast down time
- leak reactance flux
- vibration
- power


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of secondary balance gear fault in asset reciprocating internal combustion engine?

Choices:
- vibration
- radio frequency emissions
- current
- coast down
- gas generator temperature
- oil consumption
- axial flux
- fluid leakage
- power turbine temperature
- amps/ volts/ load


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has secondary balance gear fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- voltage
- oil leakage
- amps/ volts/ load
- cooling gas
- vibration
- power turbine temperature
- electrical phase
- frequency response analysis (fra)
- dissolved gas analysis
- oil debris


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of secondary balance gear fault in reciprocating internal combustion engine?

Choices:
- leak reactance flux
- air leakage
- cooling fluid leak
- coast down
- oil leakage
- compressor temperature
- frequency response analysis (fra)
- vibration
- dissolved gas analysis
- resistance


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting gear defects in reciprocating internal combustion engine?

Choices:
- pressure ratio
- compressor temperature
- voltage
- vibration
- ultrasound
- fluid flow
- engine temperature
- length
- oil debris
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if gear defects occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- leak reactance flux
- oil debris
- cylinder pressure
- length
- vibration
- bushing capacitance
- compressor temperature
- dissolved gas analysis
- amps/ volts/ load
- power turbine temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of gear defects in reciprocating internal combustion engine?

Choices:
- radio frequency emissions
- power turbine temperature
- resistance
- vibration
- oil debris
- leak reactance flux
- pressure (head)
- air flow
- voltage
- oil leakage


failure_mode_sensor_analysis

Question: When considering gear defects in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- frequency response analysis (fra)
- compressor pressure
- fuel pressure
- pressure (head)
- leak reactance flux
- vibration
- oil debris
- compressor efficiency
- dissolved gas analysis
- electrical phase


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if gear defects occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- compressor efficiency
- partial discharge
- amps/ volts/ load
- vibration
- bushing capacitance
- steam leakage
- fuel flow
- air leakage
- gas generator temperature
- oil debris


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has gear defects, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- pressure ratio
- exhaust temperature
- amps/ volts/ load
- compressor efficiency
- oil debris
- vibration
- fluid flow
- power factor
- compressor temperature
- voltage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of gear defects in asset reciprocating internal combustion engine?

Choices:
- pressure (head)
- fluid leakage
- oil debris
- vibration
- ultrasound
- compressor pressure
- oil leakage
- oil condition
- exhaust pressure
- bushing capacitance


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of gear defects in asset reciprocating internal combustion engine?

Choices:
- gas generator temperature
- oil condition
- fluid leakage
- oil debris
- current
- pressure or vacuum
- output power
- vibration
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- axial flux


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of gear defects in asset reciprocating internal combustion engine?

Choices:
- vibration
- steam leakage
- power turbine temperature
- voltage
- frequency response analysis (fra)
- oil consumption
- oil debris
- bushing capacitance
- compressor pressure
- gas generator temperature


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting gear defects?

Choices:
- turbine efficiency
- vibration
- input power
- oil debris
- fluid leakage
- amps/ volts/ load
- cooling gas
- oil debris/ contamination
- cooling fluid leak
- compresor pressure/ pressure ratio


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of flywheel damage in reciprocating internal combustion engine?

Choices:
- engine temperature
- power
- ultrasound
- length
- air leakage
- excitation current
- oil debris
- compressor efficiency
- power turbine temperature
- vibration


failure_mode_sensor_analysis

Question: When considering flywheel damage in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- oil debris
- fluid flow
- power
- axial flux
- fluid leakage
- vibration
- cylinder pressure
- pressure or vacuum
- oil condition
- gas generator temperature


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting flywheel damage?

Choices:
- oil leakage/ consumption
- dissolved gas analysis
- air flow
- pressure (head)
- resistance
- ultrasound
- vibration
- oil debris
- coast down
- partial discharge


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting flywheel damage?

Choices:
- pressure (head)
- coast down time
- compressor efficiency
- oil debris
- angular position
- vibration
- fuel pressure
- pressure or vacuum
- ultrasound
- turbine efficiency


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has flywheel damage, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- fuel flow
- power turbine temperature
- vibration
- visual
- pressure ratio
- dissolved gas analysis
- air leakage
- oil debris
- excitation current
- power


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of flywheel damage in asset reciprocating internal combustion engine?

Choices:
- oil debris
- compressor efficiency
- turbine efficiency
- angular position
- excitation current
- leak reactance flux
- exhaust temperature
- steam leakage
- vibration
- fluid leakage


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event flywheel damage occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil debris
- amps/ volts/ load
- vibration
- exhaust pressure
- fluid leakage
- power factor
- length measurement
- compresor pressure/ pressure ratio
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- voltage


failure_mode_sensor_analysis

Question: When considering flywheel damage in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- oil debris
- output power
- pressure (head)
- oil debris/ contamination
- power
- power factor
- input power
- vibration
- compressor pressure
- gas generator temperature


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has flywheel damage, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- oil consumption
- input power
- oil debris
- turbine efficiency
- vibration
- oil debris/ contamination
- current
- visual
- electrical phase
- amps/ volts/ load


failure_mode_sensor_analysis

Question: When considering flywheel damage in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- oil debris
- cooling fluid leak
- compresor pressure/ pressure ratio
- partial discharge
- compressor efficiency
- compressor temperature
- excitation current
- vibration
- air leakage
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event mounting fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil leakage
- radio frequency emissions
- angular position
- oil debris/ contamination
- power factor
- vibration
- power turbine temperature
- dissolved gas analysis
- electrical phase
- engine temperature


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if mounting fault occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- power factor
- excitation current
- vibration
- length measurement
- leak reactance flux
- cylinder pressure
- air leakage
- length
- amps/ volts/ load
- electrical phase


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event mounting fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- bushing capacitance
- turbine efficiency
- oil condition
- air flow
- cooling gas
- excitation current
- angular position
- leak reactance flux
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- vibration


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting mounting fault?

Choices:
- bushing capacitance
- oil debris/ contamination
- vibration
- fuel pressure
- dissolved gas analysis
- gas generator temperature
- axial flux
- pressure (head)
- pressure or vacuum
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- axial flux
- oil leakage
- turbine efficiency
- vibration
- fuel flow
- current
- gas generator temperature
- compresor pressure/ pressure ratio
- pressure ratio
- air leakage


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- amps/ volts/ load
- vibration
- exhaust temperature
- power factor
- dissolved gas analysis
- ultrasound
- current
- voltage
- oil debris/ contamination
- bushing capacitance


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- leak reactance flux
- excitation current
- vibration
- partial discharge
- air leakage
- visual
- steam leakage
- ultrasound
- oil leakage
- exhaust pressure


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event mounting fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- input power
- oil condition
- vibration
- electrical phase
- coast down
- output power
- compresor pressure/ pressure ratio
- steam leakage
- pressure (head)
- axial flux


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of mounting fault in asset reciprocating internal combustion engine?

Choices:
- pressure ratio
- vibration
- compressor efficiency
- fluid leakage
- radio frequency emissions
- dissolved gas analysis
- oil consumption
- input power
- coast down time
- oil leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of mounting fault in reciprocating internal combustion engine?

Choices:
- oil debris
- angular position
- compressor pressure
- radio frequency emissions
- compresor pressure/ pressure ratio
- pressure (head)
- oil leakage/ consumption
- oil condition
- vibration
- current


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has mounting fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- vibration
- coast down
- pressure or vacuum
- length
- amps/ volts/ load
- steam leakage
- oil leakage/ consumption
- power
- current
- cooling fluid leak


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- steam leakage
- frequency response analysis (fra)
- pressure or vacuum
- angular position
- vibration
- length measurement
- compresor pressure/ pressure ratio
- length
- engine temperature
- voltage


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- oil leakage/ consumption
- bushing capacitance
- power turbine temperature
- compressor pressure
- amps/ volts/ load
- cylinder pressure
- radio frequency emissions
- vibration
- steam leakage
- pressure ratio


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting unbalance?

Choices:
- air flow
- vibration
- pressure (head)
- current
- oil leakage
- compressor pressure
- power
- ultrasound
- voltage
- coast down


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- fuel pressure
- voltage
- length measurement
- turbine efficiency
- vibration
- radio frequency emissions
- excitation current
- pressure ratio
- leak reactance flux
- bushing capacitance


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- pressure or vacuum
- visual
- fluid leakage
- fuel flow
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- ultrasound
- vibration
- amps/ volts/ load
- pressure (head)
- frequency response analysis (fra)


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting unbalance?

Choices:
- oil leakage/ consumption
- vibration
- fluid leakage
- compressor pressure
- exhaust temperature
- length
- power turbine temperature
- air leakage
- compressor temperature
- pressure (head)


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of unbalance in asset reciprocating internal combustion engine?

Choices:
- exhaust pressure
- ultrasound
- power factor
- resistance
- coast down
- compressor efficiency
- fluid leakage
- excitation current
- pressure (head)
- vibration


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in reciprocating internal combustion engine?

Choices:
- air leakage
- output power
- oil leakage/ consumption
- steam leakage
- power
- axial flux
- oil leakage
- vibration
- voltage
- electrical phase


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if a failure event unbalance occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil consumption
- frequency response analysis (fra)
- steam leakage
- angular position
- vibration
- electrical phase
- excitation current
- cooling gas
- turbine efficiency
- compressor efficiency


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in reciprocating internal combustion engine?

Choices:
- pressure ratio
- resistance
- pressure (head)
- frequency response analysis (fra)
- fluid flow
- dissolved gas analysis
- voltage
- oil debris
- radio frequency emissions
- vibration


failure_mode_sensor_analysis

Question: When considering unbalance in reciprocating internal combustion engine, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- resistance
- cooling fluid leak
- frequency response analysis (fra)
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- oil debris/ contamination
- coast down time
- electrical phase
- partial discharge
- visual
- vibration


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of misalignment in asset reciprocating internal combustion engine?

Choices:
- coast down time
- electrical phase
- oil debris/ contamination
- fluid flow
- coast down
- air leakage
- engine temperature
- compressor temperature
- vibration
- excitation current


failure_mode_sensor_analysis

Question: For reciprocating internal combustion engine, if misalignment occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- vibration
- oil debris/ contamination
- oil condition
- frequency response analysis (fra)
- current
- cylinder pressure
- turbine efficiency
- pressure ratio
- cooling gas
- partial discharge


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of misalignment in asset reciprocating internal combustion engine?

Choices:
- compresor pressure/ pressure ratio
- resistance
- frequency response analysis (fra)
- oil debris/ contamination
- vibration
- air flow
- coast down time
- length measurement
- input power
- power turbine temperature


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting misalignment in reciprocating internal combustion engine?

Choices:
- pressure ratio
- power factor
- radio frequency emissions
- fuel pressure
- length measurement
- bushing capacitance
- leak reactance flux
- vibration
- input power
- power


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting misalignment?

Choices:
- angular position
- compresor pressure/ pressure ratio
- voltage
- oil condition
- fuel flow
- amps/ volts/ load
- partial discharge
- vibration
- compressor efficiency
- radio frequency emissions


failure_mode_sensor_analysis

Question: In reciprocating internal combustion engine, which sensor among the choices is least useful for detecting misalignment?

Choices:
- power turbine temperature
- coast down time
- steam leakage
- exhaust temperature
- vibration
- amps/ volts/ load
- visual
- partial discharge
- length measurement
- axial flux


failure_mode_sensor_analysis

Question: When a reciprocating internal combustion engine has misalignment, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- angular position
- cooling gas
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- coast down
- air leakage
- vibration
- amps/ volts/ load
- oil condition
- exhaust pressure
- visual


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in reciprocating internal combustion engine?

Choices:
- output power
- oil condition
- fluid flow
- dissolved gas analysis
- leak reactance flux
- visual
- steam leakage
- length
- vibration
- coast down time


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in reciprocating internal combustion engine?

Choices:
- gas generator temperature
- dissolved gas analysis
- amps/ volts/ load
- frequency response analysis (fra)
- power
- vibration
- input power
- length measurement
- power factor
- oil consumption


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting misalignment in reciprocating internal combustion engine?

Choices:
- electrical phase
- dissolved gas analysis
- visual
- pressure ratio
- oil debris
- vibration
- gas generator temperature
- pressure (head)
- oil condition
- compressor temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in reciprocating internal combustion engine?

Choices:
- frequency response analysis (fra)
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- oil leakage/ consumption
- voltage
- cooling fluid leak
- steam leakage
- compressor efficiency
- angular position
- turbine efficiency
- vibration


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting rotor windings fault?

Choices:
- fluid flow
- fluid leakage
- exhaust temperature
- voltage
- cooling gas
- axial flux
- vibration
- length
- oil condition
- temparature


failure_mode_sensor_analysis

Question: When considering rotor windings fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- cooling gas
- exhaust temperature
- axial flux
- turbine efficiency
- ultrasound
- resistance
- vibration
- current
- coast down time
- compresor pressure/ pressure ratio


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of rotor windings fault in electric generator?

Choices:
- oil leakage
- excitation current
- oil debris/ contamination
- vibration
- axial flux
- cooling gas
- length
- turbine efficiency
- partial discharge
- temparature


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of rotor windings fault in asset electric generator?

Choices:
- current
- steam leakage
- vibration
- pressure (head)
- axial flux
- oil debris/ contamination
- power
- turbine efficiency
- oil leakage
- temparature


failure_mode_sensor_analysis

Question: When considering rotor windings fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- axial flux
- fluid flow
- ultrasound
- temparature
- excitation current
- frequency response analysis (fra)
- vibration
- cooling gas
- torque
- pressure


failure_mode_sensor_analysis

Question: For electric generator, if a failure event rotor windings fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil leakage/ consumption
- power turbine temperature
- oil leakage
- cooling gas
- temparature
- radio frequency emissions
- pressure
- axial flux
- compresor pressure/ pressure ratio
- current


failure_mode_sensor_analysis

Question: For electric generator, if a failure event rotor windings fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- fuel flow
- dissolved gas analysis
- cooling gas
- bushing capacitance
- coast down
- temparature
- vibration
- air leakage
- axial flux
- air flow


failure_mode_sensor_analysis

Question: When considering rotor windings fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- oil debris
- current
- steam leakage
- engine temperature
- cylinder pressure
- vibration
- cooling fluid leak
- axial flux
- cooling gas
- compressor pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of stator windings fault in asset electric generator?

Choices:
- oil leakage
- frequency response analysis (fra)
- cooling gas
- axial flux
- voltage
- visual
- vibration
- current
- steam leakage
- length measurement


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting stator windings fault in electric generator?

Choices:
- frequency response analysis (fra)
- current
- oil leakage/ consumption
- axial flux
- resistance
- cooling gas
- engine temperature
- air flow
- dissolved gas analysis
- temparature


failure_mode_sensor_analysis

Question: For electric generator, if stator windings fault occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- fuel flow
- axial flux
- power factor
- leak reactance flux
- pressure (head)
- steam leakage
- partial discharge
- temparature
- current
- cooling gas


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting stator windings fault in electric generator?

Choices:
- current
- cooling fluid leak
- power
- axial flux
- cooling gas
- exhaust temperature
- fluid flow
- vibration
- dissolved gas analysis
- gas generator temperature


failure_mode_sensor_analysis

Question: When considering stator windings fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- axial flux
- current
- cooling gas
- compressor pressure
- torque
- pressure or vacuum
- vibration
- fuel flow
- pressure
- efficiency derived


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of stator windings fault in asset electric generator?

Choices:
- radio frequency emissions
- oil condition
- excitation current
- axial flux
- current
- frequency response analysis (fra)
- fuel flow
- vibration
- cooling gas
- visual


failure_mode_sensor_analysis

Question: When considering stator windings fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- air leakage
- oil debris/ contamination
- length
- temparature
- cooling gas
- current
- vibration
- leak reactance flux
- power turbine temperature
- coast down


failure_mode_sensor_analysis

Question: For electric generator, if a failure event stator windings fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- visual
- temparature
- fluid flow
- current
- length measurement
- vibration
- oil debris
- excitation current
- axial flux
- pressure ratio


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of eccentric rotor in asset electric generator?

Choices:
- length
- fuel pressure
- bushing capacitance
- voltage
- axial flux
- oil condition
- air flow
- leak reactance flux
- vibration
- current


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting eccentric rotor?

Choices:
- turbine efficiency
- vibration
- length measurement
- pressure (head)
- angular position
- axial flux
- resistance
- exhaust pressure
- pressure
- current


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of eccentric rotor in asset electric generator?

Choices:
- current
- steam leakage
- vibration
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- angular position
- axial flux
- oil condition
- partial discharge
- compressor temperature
- compressor pressure


failure_mode_sensor_analysis

Question: For electric generator, if a failure event eccentric rotor occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- compressor pressure
- visual
- steam leakage
- current
- vibration
- power
- exhaust temperature
- cooling fluid leak
- fuel flow
- axial flux


failure_mode_sensor_analysis

Question: For electric generator, if a failure event eccentric rotor occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- current
- torque
- oil leakage/ consumption
- pressure (head)
- vibration
- oil leakage
- axial flux
- cylinder pressure
- length
- length measurement


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting eccentric rotor in electric generator?

Choices:
- axial flux
- fluid flow
- oil debris/ contamination
- oil leakage
- radio frequency emissions
- vibration
- current
- pressure (head)
- turbine efficiency
- efficiency derived


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting eccentric rotor?

Choices:
- dissolved gas analysis
- length measurement
- temparature
- vibration
- length
- axial flux
- excitation current
- power factor
- current
- fuel flow


failure_mode_sensor_analysis

Question: When considering eccentric rotor in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- visual
- air leakage
- vibration
- exhaust temperature
- coast down
- fluid flow
- current
- axial flux
- compresor pressure/ pressure ratio
- compressor temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of eccentric rotor in asset electric generator?

Choices:
- oil debris
- current
- power turbine temperature
- efficiency derived
- axial flux
- fluid leakage
- oil leakage/ consumption
- fuel flow
- vibration
- compressor pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of eccentric rotor in asset electric generator?

Choices:
- bushing capacitance
- pressure (head)
- oil debris/ contamination
- cooling gas
- fuel pressure
- efficiency derived
- axial flux
- current
- vibration
- fluid leakage


failure_mode_sensor_analysis

Question: For electric generator, if a failure event brush(es) fault occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- frequency response analysis (fra)
- exhaust pressure
- bushing capacitance
- radio frequency emissions
- temparature
- torque
- compresor pressure/ pressure ratio
- voltage
- resistance
- steam leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of brush(es) fault in asset electric generator?

Choices:
- cylinder pressure
- leak reactance flux
- air flow
- power
- oil leakage/ consumption
- partial discharge
- temparature
- exhaust pressure
- voltage
- radio frequency emissions


failure_mode_sensor_analysis

Question: When a electric generator has brush(es) fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- torque
- pressure (head)
- fluid flow
- power
- bushing capacitance
- voltage
- vibration
- radio frequency emissions
- oil leakage/ consumption
- exhaust pressure


failure_mode_sensor_analysis

Question: When a electric generator has brush(es) fault, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- pressure
- voltage
- coast down
- torque
- length measurement
- temparature
- visual
- radio frequency emissions
- pressure (head)
- oil leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of brush(es) fault in electric generator?

Choices:
- temparature
- steam leakage
- air leakage
- compresor pressure/ pressure ratio
- radio frequency emissions
- excitation current
- torque
- axial flux
- power
- bushing capacitance


failure_mode_sensor_analysis

Question: When considering brush(es) fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- visual
- voltage
- oil debris
- excitation current
- power
- dissolved gas analysis
- temparature
- current
- cooling fluid leak
- oil debris/ contamination


failure_mode_sensor_analysis

Question: When considering brush(es) fault in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- temparature
- efficiency derived
- power
- cooling gas
- engine temperature
- cylinder pressure
- exhaust pressure
- radio frequency emissions
- current
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of bearing damage in asset electric generator?

Choices:
- fluid leakage
- coast down
- cylinder pressure
- oil debris
- compresor pressure/ pressure ratio
- temparature
- current
- vibration
- length
- oil condition


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting bearing damage?

Choices:
- vibration
- torque
- frequency response analysis (fra)
- oil leakage
- oil debris
- compressor pressure
- compresor pressure/ pressure ratio
- coast down
- power factor
- voltage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of bearing damage in asset electric generator?

Choices:
- dissolved gas analysis
- resistance
- oil debris
- compressor efficiency
- leak reactance flux
- length
- angular position
- vibration
- temparature
- torque


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting bearing damage in electric generator?

Choices:
- temparature
- torque
- oil debris
- power turbine temperature
- cooling fluid leak
- frequency response analysis (fra)
- partial discharge
- coast down
- compressor pressure
- gas generator temperature


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of bearing damage in electric generator?

Choices:
- cooling fluid leak
- oil debris
- vibration
- temparature
- turbine efficiency
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- compressor temperature
- power factor
- power
- torque


failure_mode_sensor_analysis

Question: For electric generator, if bearing damage occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- fuel pressure
- radio frequency emissions
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- temparature
- vibration
- oil debris
- air flow
- coast down
- amps/ volts/ load
- cylinder pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of bearing damage in asset electric generator?

Choices:
- turbine efficiency
- compressor temperature
- vibration
- oil debris
- leak reactance flux
- coast down
- excitation current
- efficiency derived
- torque
- axial flux


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of bearing damage in electric generator?

Choices:
- temparature
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- cooling gas
- oil debris
- cylinder pressure
- amps/ volts/ load
- length measurement
- coast down
- gas generator temperature
- vibration


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of insulation deterioration in asset electric generator?

Choices:
- current
- visual
- length measurement
- resistance
- pressure
- fluid leakage
- partial discharge
- cooling gas
- power
- steam leakage


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting insulation deterioration in electric generator?

Choices:
- voltage
- cooling gas
- angular position
- exhaust pressure
- torque
- current
- visual
- cylinder pressure
- pressure (head)
- partial discharge


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting insulation deterioration?

Choices:
- current
- voltage
- air flow
- cooling gas
- cooling fluid leak
- frequency response analysis (fra)
- fuel flow
- radio frequency emissions
- partial discharge
- fluid flow


failure_mode_sensor_analysis

Question: When considering insulation deterioration in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- vibration
- compressor pressure
- partial discharge
- leak reactance flux
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- compresor pressure/ pressure ratio
- oil leakage
- resistance
- voltage
- current


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting insulation deterioration in electric generator?

Choices:
- partial discharge
- leak reactance flux
- current
- temparature
- frequency response analysis (fra)
- cylinder pressure
- resistance
- dissolved gas analysis
- excitation current
- cooling gas


failure_mode_sensor_analysis

Question: When considering insulation deterioration in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- partial discharge
- resistance
- current
- coast down
- air leakage
- bushing capacitance
- cooling gas
- oil debris/ contamination
- exhaust pressure
- amps/ volts/ load


failure_mode_sensor_analysis

Question: When a electric generator has insulation deterioration, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- partial discharge
- coast down time
- cylinder pressure
- current
- voltage
- compressor temperature
- cooling gas
- excitation current
- oil debris/ contamination
- axial flux


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting insulation deterioration?

Choices:
- efficiency derived
- resistance
- compressor efficiency
- steam leakage
- length measurement
- partial discharge
- voltage
- angular position
- oil debris
- current


failure_mode_sensor_analysis

Question: For electric generator, if loss of output power phase occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- vibration
- oil leakage/ consumption
- current
- air leakage
- bushing capacitance
- resistance
- oil leakage
- power turbine temperature
- voltage
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting loss of output power phase in electric generator?

Choices:
- oil debris/ contamination
- current
- angular position
- pressure ratio
- vibration
- partial discharge
- voltage
- compresor pressure/ pressure ratio
- engine temperature
- fluid leakage


failure_mode_sensor_analysis

Question: When considering loss of output power phase in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- pressure (head)
- exhaust pressure
- air flow
- vibration
- ultrasound
- voltage
- oil leakage
- power
- current
- oil condition


failure_mode_sensor_analysis

Question: When a electric generator has loss of output power phase, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- air leakage
- current
- amps/ volts/ load
- power factor
- oil leakage/ consumption
- vibration
- compressor pressure
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- torque
- voltage


failure_mode_sensor_analysis

Question: For electric generator, if a failure event loss of output power phase occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- coast down time
- angular position
- voltage
- radio frequency emissions
- dissolved gas analysis
- pressure or vacuum
- pressure
- fluid flow
- current
- vibration


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting loss of output power phase?

Choices:
- vibration
- pressure (head)
- dissolved gas analysis
- ultrasound
- current
- fluid flow
- voltage
- bushing capacitance
- cooling fluid leak
- temparature


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of loss of output power phase in asset electric generator?

Choices:
- pressure
- coast down
- voltage
- dissolved gas analysis
- air leakage
- current
- air flow
- exhaust pressure
- exhaust temperature
- vibration


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting loss of output power phase?

Choices:
- fuel flow
- current
- axial flux
- steam leakage
- bushing capacitance
- voltage
- cooling fluid leak
- air flow
- dissolved gas analysis
- vibration


failure_mode_sensor_analysis

Question: When considering loss of output power phase in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- voltage
- vibration
- oil condition
- oil debris
- power turbine temperature
- air flow
- oil leakage
- visual
- current
- compressor efficiency


failure_mode_sensor_analysis

Question: When a electric generator has loss of output power phase, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- pressure (head)
- oil leakage
- power turbine temperature
- cooling gas
- current
- voltage
- bushing capacitance
- compressor efficiency
- vibration
- oil leakage/ consumption


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting unbalance in electric generator?

Choices:
- fluid flow
- oil condition
- oil debris/ contamination
- vibration
- current
- compresor pressure/ pressure ratio
- oil leakage
- compressor pressure
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- bushing capacitance


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting unbalance?

Choices:
- exhaust temperature
- pressure ratio
- air leakage
- oil leakage
- vibration
- pressure or vacuum
- voltage
- cooling fluid leak
- fluid leakage
- turbine efficiency


failure_mode_sensor_analysis

Question: For electric generator, if a failure event unbalance occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- length
- resistance
- leak reactance flux
- compressor temperature
- length measurement
- fuel flow
- angular position
- dissolved gas analysis
- vibration
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)


failure_mode_sensor_analysis

Question: For electric generator, if a failure event unbalance occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- vibration
- air leakage
- engine temperature
- excitation current
- length measurement
- coast down time
- partial discharge
- turbine efficiency
- fuel flow
- dissolved gas analysis


failure_mode_sensor_analysis

Question: For electric generator, if unbalance occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- oil condition
- length
- angular position
- vibration
- pressure (head)
- turbine efficiency
- fuel flow
- leak reactance flux
- fluid leakage
- power


failure_mode_sensor_analysis

Question: When a electric generator has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- air flow
- excitation current
- air leakage
- ultrasound
- torque
- compressor pressure
- fluid leakage
- power turbine temperature
- vibration
- steam leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of unbalance in asset electric generator?

Choices:
- pressure or vacuum
- pressure ratio
- radio frequency emissions
- cooling fluid leak
- pressure
- exhaust temperature
- vibration
- amps/ volts/ load
- air leakage
- cylinder pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of unbalance in asset electric generator?

Choices:
- compressor pressure
- air flow
- compressor efficiency
- power factor
- fluid flow
- fuel pressure
- oil condition
- vibration
- fluid leakage
- temparature


failure_mode_sensor_analysis

Question: When a electric generator has unbalance, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- coast down
- pressure or vacuum
- oil leakage/ consumption
- exhaust temperature
- engine temperature
- visual
- efficiency derived
- length
- vibration
- frequency response analysis (fra)


failure_mode_sensor_analysis

Question: In electric generator, which sensor among the choices is least useful for detecting unbalance?

Choices:
- air leakage
- steam leakage
- axial flux
- vibration
- angular position
- length measurement
- pressure ratio
- length
- fluid leakage
- leak reactance flux


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in electric generator?

Choices:
- gas generator temperature
- fuel pressure
- angular position
- oil leakage
- vibration
- fluid leakage
- exhaust temperature
- length measurement
- oil debris
- efficiency derived


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of unbalance in electric generator?

Choices:
- visual
- cooling gas
- oil leakage/ consumption
- compresor pressure/ pressure ratio
- bushing capacitance
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- frequency response analysis (fra)
- vibration
- amps/ volts/ load
- exhaust pressure


failure_mode_sensor_analysis

Question: For electric generator, if a failure event misalignment occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- oil condition
- pressure (head)
- visual
- length
- ultrasound
- current
- air leakage
- fluid flow
- vibration
- fuel flow


failure_mode_sensor_analysis

Question: When considering misalignment in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- amps/ volts/ load
- dissolved gas analysis
- oil debris/ contamination
- voltage
- oil leakage/ consumption
- coast down time
- length measurement
- air flow
- vibration
- air leakage


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting misalignment in electric generator?

Choices:
- cooling fluid leak
- vibration
- bushing capacitance
- pressure
- gas generator temperature
- resistance
- visual
- pressure or vacuum
- compresor pressure/ pressure ratio
- excitation current


failure_mode_sensor_analysis

Question: For electric generator, if misalignment occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- oil condition
- engine temperature
- compresor pressure/ pressure ratio
- partial discharge
- compressor pressure
- pressure or vacuum
- coast down time
- vibration
- compressor efficiency
- bushing capacitance


failure_mode_sensor_analysis

Question: For electric generator, if misalignment occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- frequency response analysis (fra)
- vibration
- cooling fluid leak
- turbine efficiency
- power
- pressure or vacuum
- air flow
- length measurement
- oil condition
- coast down time


failure_mode_sensor_analysis

Question: When a electric generator has misalignment, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- coast down time
- oil leakage/ consumption
- torque
- fluid flow
- excitation current
- ultrasound
- vibration
- cylinder pressure
- leak reactance flux
- length


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in electric generator?

Choices:
- pressure
- vibration
- radio frequency emissions
- angular position
- fuel flow
- power factor
- oil leakage
- cylinder pressure
- bushing capacitance
- pressure ratio


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of misalignment in asset electric generator?

Choices:
- temparature
- vibration
- length
- exhaust pressure
- visual
- oil condition
- compresor pressure/ pressure ratio
- steam leakage
- engine temperature
- frequency response analysis (fra)


failure_mode_sensor_analysis

Question: When considering misalignment in electric generator, which sensor should be disregarded from the choices for monitoring this failure?

Choices:
- vibration
- coast down
- fuel pressure
- oil leakage/ consumption
- fluid leakage
- oil leakage
- steam leakage
- gas generator temperature
- fuel flow
- air leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of misalignment in electric generator?

Choices:
- cylinder pressure
- efficiency derived
- excitation current
- axial flux
- pressure ratio
- visual
- dissolved gas analysis
- oil leakage/ consumption
- vibration
- air leakage


failure_mode_sensor_analysis

Question: For electric generator, if misalignment occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- fuel pressure
- efficiency derived
- compressor pressure
- vibration
- cylinder pressure
- pressure
- dissolved gas analysis
- length
- oil debris
- fuel flow


failure_mode_sensor_analysis

Question: Which sensor from the choices does not contribute significantly to detecting misalignment in electric generator?

Choices:
- cooling gas
- pressure ratio
- engine temperature
- pressure
- cooling fluid leak
- oil condition
- vibration
- cylinder pressure
- exhaust temperature
- fuel pressure


failure_mode_sensor_analysis

Question: For fan, if a failure event damaged impeller occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- partial discharge
- temperature
- air leakage
- length measurement
- current
- angular position
- oil debris
- pressure or vacuum
- voltage
- steam leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of damaged impeller in asset fan?

Choices:
- coast down
- dissolved gas analysis
- compressor temperature
- oil leakage
- compressor pressure
- vibration
- pressure or vacuum
- power
- output power
- speed


failure_mode_sensor_analysis

Question: When a fan has damaged oil seals, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- oil leakage
- electrical phase
- current
- oil debris
- cooling gas
- output power
- air leakage
- length measurement
- speed
- exhaust temperature


failure_mode_sensor_analysis

Question: When a fan has damaged oil seals, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- oil debris
- pressure or vacuum
- length measurement
- turbine efficiency
- speed
- engine temperature
- angular position
- coast down
- power turbine temperature
- power


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of damaged oil seals in fan?

Choices:
- oil leakage
- excitation current
- oil debris
- gas generator temperature
- oil condition
- speed
- cylinder pressure
- current
- vibration
- length measurement


failure_mode_sensor_analysis

Question: In fan, which sensor among the choices is least useful for detecting damaged oil seals?

Choices:
- engine temperature
- torque
- oil leakage
- length measurement
- bushing capacitance
- amps/ volts/ load
- pressure or vacuum
- compressor pressure
- temperature
- speed


failure_mode_sensor_analysis

Question: When a fan has damaged oil seals, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- compressor efficiency
- pressure ratio
- oil leakage
- pressure or vacuum
- compressor temperature
- exhaust pressure
- length measurement
- oil debris
- fluid flow
- coast down time


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of damaged bellows in asset fan?

Choices:
- air leakage
- length measurement
- gas generator temperature
- resistance
- cooling gas
- dielecric frequency response (dfr)/ polarization and de-polarization current (pdc)/ recovery voltage method (rvm)
- cooling fluid leak
- oil leakage/ consumption
- radio frequency emissions
- compresor pressure/ pressure ratio


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of damaged bellows in fan?

Choices:
- resistance
- air leakage
- bushing capacitance
- oil debris/ contamination
- compressor pressure
- power
- engine temperature
- excitation current
- dissolved gas analysis
- voltage


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of damaged bellows in asset fan?

Choices:
- coast down
- current
- leak reactance flux
- ultrasound
- steam leakage
- pressure or vacuum
- amps/ volts/ load
- frequency response analysis (fra)
- compresor pressure/ pressure ratio
- air leakage


failure_mode_sensor_analysis

Question: For fan, if a failure event damaged bellows occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- excitation current
- pressure (head)
- cooling gas
- compresor pressure/ pressure ratio
- exhaust pressure
- voltage
- speed
- compressor efficiency
- fluid flow
- air leakage


failure_mode_sensor_analysis

Question: In fan, which sensor among the choices is least useful for detecting damaged bellows?

Choices:
- cooling gas
- ultrasound
- voltage
- turbine efficiency
- leak reactance flux
- angular position
- air leakage
- pressure ratio
- amps/ volts/ load
- vibration


failure_mode_sensor_analysis

Question: For fan, if damaged bellows occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- compresor pressure/ pressure ratio
- exhaust temperature
- air leakage
- gas generator temperature
- visual
- temperature
- exhaust pressure
- pressure (head)
- fluid leakage
- output power


failure_mode_sensor_analysis

Question: For fan, if damaged bellows occurs, which sensor among the choices is least likely to be relevant in identifying this failure?

Choices:
- efficiency derived
- turbine efficiency
- coast down
- engine temperature
- air leakage
- pressure (head)
- fuel pressure
- electrical phase
- coast down time
- compressor pressure


failure_mode_sensor_analysis

Question: Which sensor out of the choices does not indicate the presence of damaged bellows in asset fan?

Choices:
- electrical phase
- angular position
- steam leakage
- fluid flow
- resistance
- gas generator temperature
- air leakage
- oil debris
- engine temperature
- cylinder pressure


failure_mode_sensor_analysis

Question: When a fan has damaged bellows, which sensor out of the choices should not be the sensor to be monitored for this failure if I want to build an anomaly detection model?

Choices:
- visual
- exhaust temperature
- torque
- oil leakage
- cooling gas
- cylinder pressure
- oil debris/ contamination
- power turbine temperature
- angular position
- air leakage


failure_mode_sensor_analysis

Question: Which sensor out of the choices is not effective in indicating the presence of eccentric impeller in fan?

Choices:
- coast down time
- frequency response analysis (fra)
- pressure (head)
- power
- vibration
- cooling fluid leak
- dissolved gas analysis
- pressure or vacuum
- radio frequency emissions
- air leakage


failure_mode_sensor_analysis

Question: For fan, if a failure event eccentric impeller occurs, which sensor out of the choices is not relevant regarding the occurrence of the failure event?

Choices:
- fuel flow
- exhaust temperature
- compressor pressure
- cooling gas
- coast down time
- length measurement
- fluid flow
- temperature
- pressure or vacuum
- power