Agilent Technologies E9300 manual Typical Power Linearity at 25C, after zero

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E9300/1/4/A Power Sensor Specifications

% Error
1
0.8
0.6
0.4
0.2
0
-0.2
-0.4
-0.6
-0.8
-1
-30	-25	-20	-15	-10	-5	0	5	10	15	20
					Power (dBm)

Figure 12 Typical Power Linearity at 25°C, after zero and

	calibration, with associated Measurement Uncertainty

		-30 to	-20 to	-10 to	0 to	10 to
		-20 dBm	-10 dBm	0 dBm	10 dBm	20 dBm

	Measurement	± 0.9%	± 0.8%	± 0.65%	± 0.55%	± 0.45%
	Uncertainty


Note	If the temperature changes after calibration and you choose not to
	re-calibrate the sensor, Additional Power Linearity Error (next
	table) should be added to the Power Linearity specifications shown

above. The typical maximum Additional Power Linearity error due to temperature change after calibration at 25°C, for small changes in temperature, is ±0.15 %/°C (valid after zeroing the sensor).

For larger changes refer to the following table.

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Contents Operating and Service Guide Copyright 1999 Agilent Technologies Legal Information WarrantyCertification Exclusive Remedies Limitation of WarrantySound Emission General Safety InformationPower Meter Front Panel Operation SafetyConventions Sensors Covered by Manual DocumentationRelated Publications Documentation Table of Contents Standing Wave Ratio SWR and Reflection Coefficient Rho Per Introduction Typical HP E-series E9300 power sensors General Information Power Meter RequirementsSimplified Block Diagram of Diode Pair/Attenuator/Diode Pair Agilent E-Series E9300 Power Sensors in DetailGeneral Information Getting Started Checking Power Meter Firmware and DSP RevisionInitial Inspection Interconnections and Calibration Specifications Making Measurements What You’ll Find This Chapter Auto-averaging Settings Power Meter Configuration ChangesSpread Spectrum Signal Measuring Spread Spectrum and Multitone SignalsCdma IS-95A 9Ch Fwd Cdma Signal Measurements90 % Frequency GHz Typical Lower Range Calibration Factor Multitone Signal MeasurementsPower Meter and Sensor Operation Measuring Tdma SignalsAchieving Stable Results with Tdma Signals Input Settings , More Achieving Stable Results with GSM SignalsElectromagnetic Compatibility EMC Measurements Measurement Accuracy and Speed Setting the RangeAccuracy Measurement ConsiderationsSummary Speed and AveragingSpecifications and Characteristics Introduction Sensor Low Power Path High Power PathConnector Type E9300/1/4/A Power Sensor SpecificationsMaximum SWR 0C to +55C Maximum DC Voltage Maximum Power± 2.5% Power LinearityTypical Power Linearity at 25C, after zero Additional Power Zero Set Zero Drift Measurement Noise Switching PointTime E4418B E4419B Settling TimeCalibration Factor and Reflection Coefficient X2 ModeCal Factor Uncertainty General Frequency Range E9300/1B and H Power Sensor SpecificationsE9300B Typical SWR 25C ± 10C E9300H Typical SWR 10 MHz to 18 GHz 25C ± 10C Maximum Power Sensor To 35 C To 55 C GHz E9300/1B To 0 dBm To 10 dBm 10 to 20 dBm 20 to 26 dBm For larger changes refer to the following table E9300/1H DBm to 0 dBm +44 +30 dBm E9300/1B Conditions Zero Set Zero Drift2 Measurement Settling Time Typical Cal Factor Uncertainty Low Power Path Cal Factor Uncertainty High Power Path Storage and Shipment Environment ReferencesE9300/1B and H Power Sensor Specifications Service Connector Cleaning CleaningFrequency System Rho Actual Maximum Uncertainty Measurement Performance TestPerformance Test Is the illustrated parts breakdown IPB that identifies all Replaceable PartsIllustrated Parts Break down Reference Agilent Part Qty Description Designation Number LABEL, ID E9301B Principles of Operation ServiceDisassembly Procedure TroubleshootingRepair of Defective Sensor Removing Power Sensor Shell Reassembly ProcedureAsia Pacific Sales and Service OfficesEurope