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Loading...What to do if Agilent Technologies E3631A Power Supply unit is inoperative?
If the Agilent Technologies Power Supply unit is inoperative, ensure the AC power cord is properly connected. Also, check that the front-panel power switch is depressed and that the correct power-line fuse is installed. For 100 or 115 Vac operation, use a 2.5 AT, 250 V fuse; for 230 Vac operation, use a 2 AT, 250 V fuse. Finally, verify the power-line voltage setting.
What to do if Agilent Technologies E3631A fails self-test?
If the Agilent Technologies Power Supply fails the self-test, verify that the correct power-line voltage setting is selected. A failure of the DAC U12 on the top board can cause many self-test failures. Also, make sure all terminal connections are removed while performing the self-test.
What to do if Agilent Technologies Power Supply has errors during calibration or state change?
Errors may occur if the unit is turned off during calibration or while changing a non-volatile state. Recalibration or resetting the state should clear the error.
How to troubleshoot an inoperative Agilent Technologies E3631A?
If your Agilent Technologies Power Supply is inoperative, check the following: * Ensure the AC power cord is properly connected to the power supply. * Confirm that the front-panel power switch is pressed. * Verify the power-line fuse is correctly installed. Use a 2.5 AT, 250 V fuse for 100 or 115 Vac, or a 2 AT, 250 V fuse for 230 Vac. * Check the power-line voltage setting, referring to the instructions for preparing the power supply for use.
General| Brand | Agilent Technologies |
|---|---|
| Model | E3631A |
| Category | Power Supply |
| Language | English |
Covers safety and EMC requirements for the instrument.
Lists available options and accessories for the power supply.
Provides a detailed overview of the power supply's features and functionality.
Details initial inspection, cooling, location, and rack mounting procedures.
Explains AC input voltage selection and power-line cord requirements.
Steps to verify the power supply is ready for use before initial operation.
Procedures for checking power-on self-test and basic output functions.
Introduces front-panel keys and modes for operating the power supply.
Details constant voltage, constant current, and tracking output operations.
Explains how to save and retrieve instrument configurations.
Covers disabling outputs, knob locking, self-tests, error conditions, and display control.
Guides on selecting interfaces, setting GPIB addresses, and RS-232 parameters.
Details GPIB setup, RS-232 setup, connection, and troubleshooting.
Provides an overview of calibration security, code changes, count, and message features.
Summarizes available SCPI commands for programming the power supply.
Introduces basic programming methods using APPLy, low-level commands, output control, and triggering.
Details commands for selecting, setting, and operating outputs.
Explains how to select trigger sources and manage triggering operations.
Covers commands for display control, beeper, errors, version, and reset.
Details SCPI commands for managing calibration security, current, voltage, and string data.
Lists commands specific to RS-232 communication with the power supply.
Details event, enable, summary, questionable, standard, and byte registers and their usage.
Covers commands for querying system errors and status registers.
Explains SCPI language basics, command format, separators, and parameter types.
Covers halting outputs, SCPI conformance, and IEEE-488 conformance.
Lists commands specific to the Agilent E3631A, not in the SCPI standard.
Lists and explains execution errors related to command syntax and parameters.
Details error codes for self-tests and calibration failures.
Introduces example programs in BASIC and C/QuickBASIC for GPIB and RS-232.
Demonstrates setting outputs and using commands via APPLy and low-level SCPI.
Shows using status registers for interrupts and RS-232 communication examples.
Explains the basic design and operation of series regulated power supplies.
Describes output modes, unregulated states, unwanted signals, and load connection factors.
Covers series connections for higher voltage and factors affecting remote programming speed.
Discusses component reliability, internal heat, and cooling requirements for the power supply.
Lists warranted performance parameters like output ratings, accuracy, and ripple.
Details non-warranted characteristics such as temperature, stability, speed, dimensions, and cooling.
