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General| Power Supply | 100-240 V AC, 50/60 Hz |
|---|---|
| Voltage Range | 0 to 300 V |
| Harmonic Distortion | <0.5% THD |
| Operating Temperature | 0°C to 50°C |
| Storage Temperature | -20°C to 70°C (-4°F to 158°F) |
Details various internal options that expand or improve F2250 power system simulator performance.
Describes options that further automate simulator functions, including ProTesT and TRANS2 software.
Highlights unique features of the F2250 family, including modular design, rugged packaging, and internal microcomputer.
Details the I/O interface panel behind the side door, including switches and connectors.
Explains how F2250 simulators connect to form networked systems for multiphase relay testing.
Describes the DobleCoL language and protocol used for simulator communication over the IEEE-488 bus.
Provides critical safety warnings for operating the F2250 simulator, emphasizing high voltages.
Describes the HIGH VOLTAGE LED indicator and its function.
Explains how the F2250 can be controlled remotely by a minicontroller or host computer.
Details the F2010 minicontroller, a hand-held remote controller for the simulator.
Describes using a PC as a host computer for controlling F2250 simulators via RS-232.
Explains the ProTesT software system for automated relay testing.
Details TRANS2 software for replaying power system transient fault records.
Explains DobleCoL as the control language and communications protocol for F2250 family instruments.
Explains differences between the F2250 and F2153, focusing on front panel and board upgrades.
Describes the simulator's power-up sequence and initial state.
Explains controls and indicators that apply to all sources in a multi-unit system.
Details controls and displays for individual sources, including mode and designation.
Describes the integrated digital timer for measuring time between events.
Explains how configuration messages define the unit and its options.
Provides an overview of the F2010 Minicontroller's controls and indicators.
Provides instructions for setting up the power system simulator and attaching the F2010 Minicontroller.
Explains how to connect multiple F2250 simulators to form a networked system.
Details how the first unit powered up becomes the Controller-in-Charge for network communication.
Guides the user through connecting and powering up the network.
Describes the essential configuration steps for the F2250.
Explains how to configure system options like Fault Rotate and Battery Simulator.
Details the F2010 Minicontroller's role in setup and operation.
Explains the physical structure of the F2250 and its operational modes.
Describes the components of every F2250 power system simulator.
Details the Central Processing Unit (CPU) and its functions.
Explains how the microcomputer controls signal generation via waveform and timing boards.
Describes how incremental sine wave values are stored and converted to analog signals.
Explains how amplitude is calculated and applied to the amplifier.
Details how sources are turned on and off individually or together.
Describes how phase angle relationships are obtained and set.
Explains how frequency is controlled by clock pulses and references.
Details the use of Active Sources Power Amplifiers for precise output signals.
Explains how START and STOP inputs are selected and asserted.
Describes input contacts triggering dynamic state changes for testing.
Explains the operational modes of LOGIC OUTPUTS.
Discusses logical input uses and procedures for validating different operation modes.
Explains using F2250 amplifiers with external signal sources.
Details external analog reference input signals via a nine-pin D-connector.
Describes the connection requirements for using amplifiers with external signals.
Explains how the F2010 Minicontroller expands F2250 functions for dynamic testing.
Introduces basic F2010 Minicontroller functions for selecting and adjusting parameters.
Explains how to perform Manual Test, Value Timing Test, and AutoSensE Test.
Describes PRESET/ACTION test methods including Manual, Instantaneous Timing, and ∆VALUE/∆TIME.
Details the use of the ∆VALUE/∆TIME option for varying parameters with respect to time.
Explains the importance of high resolution in test parameters for accurate relay measurements.
Defines VALUE A and VALUE B as limits for ∆VALUE/∆TIME ramps.
Describes how to automatically determine relay settings via incremental ramps.
Explains starting time measurement at any frequency between ramp limits.
Covers advanced minicontroller functions and their test applications.
Details simultaneous control of multiple sources provided by the F2825 option.
Describes simulating three-phase faults by collapsing voltages.
Explains using voltage or current sources with phase angle relationships for power swing tests.
Lists common network errors detected on the IEEE-488 Bus or SYNC cable.
Details internal errors caused by hardware or software malfunctions.
Describes source errors occurring during normal operations due to various reasons.
Lists miscellaneous error messages and their resolutions.
Lists basic test equipment required for checking voltage or current source outputs.
Provides graphics of the F2250 faceplate and configurations for troubleshooting.
Calls out test points used for troubleshooting techniques.
Outlines tests to validate F2250 operations after power up or if malfunctioning.
Details tests to validate the proper operation of the Low Voltage Power Supply.
Provides flow charts to assist in analyzing and resolving unit problems.
Breaks down F2250 diagnostics into Initialization and Run-Time categories.
Describes LED analysis during instrument power up.
Explains how configuration messages define unit and options via SOURCE and TIME displays.
Shows the proper sequence of LED illumination for boards during power-up.
Details error codes indicated by amplitude, phase, or source designator displays.
Discusses source errors generated by overload, overtemperature, or power supply issues.
Provides steps to diagnose issues with the Battery Simulator.
Lists basic system checks to assess operation and eliminate simple causes.
Provides procedures to test the amplifier system for voltage and current configurations.
Shows the F2250 faceplate and a view of its configurations for FRU identification.
Details the important features and replacement procedure for the Voltage Amplifier module.
Describes the Current Amplifier module's connections and replacement procedure.
Explains the Digital Contact Timer (DCT) board's connection and replacement procedure.
Details the Amplifier Control board's connection to the CPUIII backplane and replacement.
Describes the CPUIII board's connection to the backplane and replacement procedure.
Explains the WG2 or TWG board's connection to the backplane and replacement.
Details the TSG board's connection and replacement, including PAL chip swapping.
Provides the procedure for replacing the Low Voltage Power Supply.
Details the replacement procedure for the AC Front End assembly.
Provides instructions for replacing the fan assembly.
Details the procedure for replacing the Front Panel board.
Explains the procedure for replacing the Timer Front End board.
Shows the F2250 faceplate and view for adding upgrade options.
Details procedures for upgrading the TSG board, including PAL chip replacement.
Describes installing the Battery Simulator into the F2250.
Instructions for changing power supply voltage and base frequency.
Describes installing revised firmware onto F2250 series simulators.
Discusses RS-232 cable requirements and CPU board types for firmware updates.
Provides procedures for preparing to load, copying files, and interacting with the flash loader.
Details frequency characteristics including base frequency, selectable frequencies, and accuracy.
Describes the voltage and current output characteristics for F2250 models.
Explains the characteristics of LOGIC OUTPUTS and LOGIC/SIGNAL INPUTs.
Discusses the characteristics of the multi-mode digital timer.
Details the characteristics of the Battery Simulator.
Covers general specifications including source operation, accuracy, and environmental limits.
Discusses the resolution capabilities of the F2010 Minicontroller for automation.
Describes the external interface connections found on the I/O plate.
Details the F2250's physical specifications, including enclosure, dimensions, and weight.
Lists part numbers for F2250 boards and modules.
Lists part numbers for F2250 assemblies.
Lists part numbers for ribbon cables and other connectors.
Reference drawing for F2151 Series cabling.
Reference block diagram for F2250 Power Amplifier.
Reference drawing for F2250 Low Voltage Power Supply Assembly.
Reference drawing for F2250 AC Front End Assembly.
Reference drawing for F2250 cables, adapters, and accessories.
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