Agilent Technologies 6811B, 6813B, 6812B manual Rst

Page 43

Shift

Phase

 

Front Panel Operation - 4

Press this key to access the phase menu list.

Display

Command Function

PHASE <value>

Set immediate output phase

PHASE:T <value>

Set triggered output phase

PHASE:M <char>

Select the phase mode (FIXED, STEP, PULSE or LIST)

Shape

Press this key to access the shape menu list.

Display

Command Function

SHAPE <char>

Select the immediate output wave shape (SINE,

 

SQUARE, or CSINE) CSIN = clipped sine wave

SHAPE:T <char>

Select the triggered output wave shape (SINE, SQUARE,

 

or CSINE) CSIN = clipped sine wave

SHAPE:M <char>

Select the shape mode (FIXED, STEP, PULSE or LIST)

CLIP <value>

Set the clipping level of the CSIN wave shape. This

 

specifies the point where clipping starts as a percentage of

 

the peak amplitude or percentage of THD.

Pulse

Press this key to access the pulse menu list.

Display

Command Function

WIDTH <value>

Set the pulse width

COUNT <value>

Set the number of output pulses

DCYCLE <value>

Set the pulse duty cycle as a percentage of the pulse period

PER <value>

Set the pulse period

HOLD <char>

Set the parameter that will be held constant as the other

 

parameters change (WIDTH or DCYCLE)

Shift

Output

Press this key to access the output menu list.

Display

Command Function

OUTP:COUP <char>

Select output coupling (AC or DC)

*RST

Execute *RST command to place the ac source in the

 

factory-default state

TTLT:SOUR <char>

Select Trigger Out source coupling (BOT, EOT or LIST)

 

BOT = beginning of trensient

 

EOT = end of transient

 

LIST = TTLT trigger (see Programming Guide)

TTLT:STATE <value>

Set Trigger Out state (ON or OFF)

IMP:STATE <value>

Set output impedance programming (ON or OFF)

IMP:REAL <value>

Set real part of output impedance

IMP:REAC <value>

Set reactive part of output impedance

PON:STATE <char>

Select power-on state command (RST or RCL0)

RI <char>

Sets remote inhibit mode (LATCHING, LIVE, or OFF)

DFI <char>

Sets discrete fault indicator state (ON or OFF)

DFI:SOUR <char>

Select the DFI source (QUES, OPER, ESB, RQS, or OFF)

 

(see Chapter 4 of Programming Guide)

Notes:

 

value = a numeric value

char = a character string parameter

p

and

q

scroll through the command list.

Ø

￿

 

and

 

scroll through the parameter list.

43

Page 42 Page 44
Image 43
Page 42 Page 44
Contents User’s Guide AC Power Solutions Agilent Models 6811B, 6812B, and 6813BCertification Warranty InformationGeneral Safety SummarySafety Symbols EMC DeclarationPrinting History Acoustic Noise InformationTable of Contents Performing the Verification Tests Performing the Calibration ProcedureEntry Keys Examples of Front Panel Programming IntroductionLine Voltage Conversion Error Number ListPage Topic Document OrientationLocation Options Safety ConsiderationsOptions and Parts Earlier AC Source ModelsOperator Replaceable Parts DescriptionAgilent Part Number Capabilities Front Panel/Remote OperationModel Description Steady-state Output Characteristic in real-time mode Steady-state Output CharacteristicTypical Peak Current Output Capacities Peak Current/Dynamic Power CapabilityPeak Current Limit Peak Inrush ExampleCapacitance in μF 127 254 Ipeak settingReal Time Regulation RMS Current Limit CircuitVoltage Regulation Output ImpedanceOutput Coupling Page Items Supplied CleaningInspection Damage Packaging MaterialNot block the fan exhaust at the rear of the unit LocationBench Operation Rack MountingInput Connections Installing the Power CordInput Source and Line Fuse Output Connections Connecting the Power CordCurrent Ratings Wire ConsiderationsRemote Sense Connections Voltage DropsRemote Sense Connections Digital Connections Trigger ConnectionsRemote Sensing and OVP Considerations Controller Connections Gpib ConnectorRS-232 Data Format Interface CommandsRS-232 Connector RS-232 InterfaceNull Modem Interface Lines Response Data Terminator Hardware HandshakePreliminary Checkout IntroductionCheckout Procedure Using the KeypadPress 1, 6, 0, Enter Press 1, 2, 0, EnterPress Output On/Off Press ProtectCase of Trouble Error MessagesSelftest Errors Power-On Selftest ErrorsMay appear at runtime Runtime Error MessagesLine Fuse IndicatesPage Front Panel, Overall View Front Panel DescriptionAC+DC System Keys Dis lay Command FunctionImmediate Action Keys Function KeysScrolling Keys Display Display Command FunctionMeter Display Keys Display MeasurementList Output Control KeysRST Protclear Protection and Status Control KeysCLS Abort Trigger and List Control KeysInitimmed IMMThrough Are used for entering numeric values Is the decimal Entry KeysExamples of Front Panel Programming Setting the Output Voltage AmplitudeSet the output to 120 V rms as follows Action Setting the Output FrequencySetting the DC Offset To verify the output, use the meter menuClearing Protection Conditions Setting a Protection FeatureOvercurrent protection feature as follows Bit Number Bit WeightPulse Using Transient Voltage ModesVoltm Step Step TransientPulse Transient VolttDcycle List TransientVoltm Pulse WidthVolt EOL Step Auto Trigger Delays and Phase SynchronizationVoltm Fixed List Count Dwel Dwel EOL VoltExample Display Syncsour PhaseSyncphas Initimmed Programming Slew Rates Using Slew Rates to Generate WaveformsSlewt Voltm FixedSlew Step SlewmCurrpeak Syncsour Phase SyncphasMeasuring Peak Inrush Current CurrlevAction Display To set the Gpib address, proceed as follows Setting the Gpib Address and RS-232 ParametersTo configure the RS-232 interface, proceed as follows Saving and Recalling Operating StatesTable A-1. Performance Specifications1 SpecificationsTable A-1. Performance Specifications Table A-2. Supplemental Characteristics Supplemental CharacteristicsTrig Out HC TTL output Trig In 10k pullup Table A-3. Operation Below 45 Hz Operation Below 45 HzPage Equipment Required Verification and CalibrationTable B-1. Equipment Required Test SetupRecommended Model Action Normal Result Turn-On Checkout ProcedurePerforming the Verification Tests AC Voltage Programming and Measurement AccuracyVolt 50, Currrange LOW, Currlev DC Voltage Programming and Measurement AccuracyRMS Current Accuracy Test Volt 0, Outpcoup DC, OffsetRMS Current Measurement Accuracy Table B-2. Agilent 6811B Verification Test RecordTable B-3. Agilent 6812B Verification Test Record DC Programming and Measurement AccuracyTable B-4. Agilent 6813B Verification Test Record Table B-3Front Panel Calibration Menu Performing the Calibration ProcedureFront Panel Calibration Enable Calibration ModeCalibrating and Entering Voltage Offset Values Calibrating and Entering AC rms Voltage Gain Values Calibrating and Entering DC Voltage Gain ValuesCallev P4 Calibrating and Entering rms Current Values Calibrating the OVP Trip PointOFF Calibrating and Entering rms Current Measurement ValuesCalibrating the Output Impedance Saving the Calibration ConstantsCalibration Over the Gpib Changing the Calibration PasswordCalibration Error Messages Table B-5. Gpib Calibration Error MessagesFigure B-2. Calibration Program Listing Sheet 1 Figure B-2. Calibration Program Listing Sheet 2 Figure B-2. Calibration Program Listing Sheet 3 Page Table C-1. Error Numbers Error Number ListError Messages Error Messages C Page Check the Line Jumpers all Models Check the Jumper Wire Model Agilent 6811B/6812B onlyCheck the Power Transformer Connector all Models Open the UnitFigure D-1. Line Voltage Conversion Components Close the UnitIndex Index Index Japan United States Latin AmericaCanada Australia/New Zealand Europe Asia PacificManual Updates
Related manuals
Manual 187 pages 38.86 Kb Manual 20 pages 27.01 Kb Manual 3 pages 27.44 Kb

6812B, 6811B, 6813B specifications

Agilent Technologies, a leader in electronic test and measurement equipment, offers a range of powerful signal sources including the 6843A, 6834B, 6814B, 6813B, and 6811B models. These instruments are designed to support various applications in research, development, and manufacturing, providing precise signal generation capabilities.

The Agilent 6843A is a versatile signal generator known for its exceptional frequency range and modulation capabilities. It supports an extensive bandwidth, making it ideal for applications that require high-frequency signal generation. With its superior phase noise performance, the 6843A is an excellent choice for radar, wireless communications, and electronic warfare applications. The instrument features an intuitive user interface, allowing engineers to set parameters quickly and efficiently.

Next, the Agilent 6834B offers exceptional performance characteristics, including high output power and low distortion. This signal generator is particularly noted for its ability to produce complex modulation formats, making it suitable for testing advanced wireless communication systems. With a reliable and stable output, the 6834B ensures accurate and repeatable measurements, which is vital for thorough testing processes.

The 6814B model stands out for its dual-channel capabilities, allowing users to generate simultaneous signals for testing multiple components or systems. This feature significantly enhances testing efficiency and flexibility for engineers. With built-in arbitrary waveform functionality, users can create custom waveforms, making the 6814B suitable for a wide range of applications including device characterization and signal processing research.

For those seeking a more compact solution, the Agilent 6813B provides essential signal generation features without compromising on performance. It is designed for a variety of applications across telecommunications and consumer electronics, featuring a straightforward interface and robust performance metrics.

Lastly, the 6811B is an entry-level yet capable model that supports a broad spectrum of testing needs. Perfect for educational and laboratory environments, it provides essential functionalities required for effective signal generation and analysis.

Overall, Agilent Technologies' 6843A, 6834B, 6814B, 6813B, and 6811B signal generators offer an array of features and technologies that cater to various application needs. Their precision, reliability, and user-oriented designs position them as invaluable assets in any testing environment, ensuring engineers can carry out their work with confidence and accuracy.
Top Page Image Contents