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General| Brand | Deif |
|---|---|
| Model | AGC 100 |
| Category | Controller |
| Language | English |
Covers warnings, legal disclaimers, safety issues, ESD awareness, and factory settings.
Details the handbook's purpose, intended users, and overall structure.
Introduces the AGC unit and its place in the DEIF product range.
Describes the Advanced Genset Controller as a microprocessor-based control unit.
Outlines the different variants and optional functions available for the AGC 100 family.
Explains how to set up the controller using PC utility software and interface options.
Warns about potential risks when remote controlling the genset via PC software or modem.
Specifies the intended use of controllers in Listed Generator Assemblies evaluated for fire and shock.
Covers basic functionalities including operation modes, engine control, generator/busbar protection, display, and M-Logic.
Refers to Installation Instructions for terminal strip and rear controller view details.
Details how to configure the AGC 100 for single phase, split phase, and three-phase systems.
Lists applications like AMF, Island operation, and Load takeover, and their supported genset modes.
Explains manual, semi-auto, test, simple test, full test, and block modes of operation.
Illustrates application setups like Automatic Mains Failure, Island operation, and Load takeover.
Presents flowcharts for key functions like mode shift, sequences, AMF, and test.
Details the three password levels (Customer, Service, Master) and parameter access.
Directs users to the Operator's manual for display and menu structure information.
Explains that AGC 100 communicates with engine controllers via CAN bus (CAN A).
Covers start sequence, deactivation triggers, and digital feedbacks for running detection.
Explains the formula and detection of mains voltage unbalance.
Describes how phase sequence errors are detected and managed before breaker closing.
Details the five possible breaker types and the necessity of feedback for some.
Explains how to avoid close failures by adjusting spring load time for breakers.
Describes how to make alarms inactive based on configurable conditions via PC utility software.
Explains how access lock denies operator access to configuration and mode changes.
Details controlling mains return sequence via a digital input, e.g., 'Mains Okay'.
Allows automatic genset start/stop based on programmed time periods each weekday.
Adjusts Run status to give a digital output when the genset is running.
Enables genset operation at low temperatures, using timers and digital inputs for control.
Controls engine temperature using a sensor and external heating system.
Tests battery condition, initiated by digital input, available in semi-auto and auto modes.
Controls engine cooling by activating external ventilation based on temperature measurement.
Function for indication or alarm when the system is not in Auto mode.
Starts and stops the fuel pump to maintain fuel level at predefined service tank levels.
Defines alarm categories and subsequent actions for engine running and stopped states.
Monitors maintenance intervals based on running hours or days, triggering alarms.
Lists available digital inputs, their modes (Auto, Semi, Test, Man, Block), and configurability.
Details output functions configurable to any available relay, including Status OK and Run coil.
Explains configuration of three multi-inputs for types like 4-20mA, RMI, and Binary.
Enables supervision of sensors/wires, detecting breaks or short-circuits with configurable alarms.
Allows configuration of digital input alarms to activate on normally open or normally closed signals.
Enables display of different languages, configurable via PC utility software.
Explains the different messages displayed in the status line text.
Includes counters for various values like running time and breaker operations, adjustable via menu 6100.
Utilizes configurable digital inputs for counter input, e.g., fuel consumption or heat flow.
Executes commands based on predefined conditions, functioning as a simple logic tool.
Features a built-in buzzer configured in M-Logic for alarm annunciation.
Enables sending SMS alarms and communicating with PC utility software.
Allows remote monitoring and control of the genset application via PC utility software.
Explains how to change nominal settings to match different voltages and frequencies.
Adjusts voltage scaling to handle applications above 25000 V and below 100 V.
Controls engine cooling fans with priority rearrangement and temperature-dependent start/stop.
Compares two analogue inputs and triggers on the difference between their values.
A standstill power-saving mode where the unit enters sleep if no activity occurs.
Facilitates exchanging lubricating oil by activating a relay based on engine hours.
Measures thermal demand (average max peak current) and maximum demand (newest peak current).
Explains that protections are definite time type with setpoints and timers.
Describes protection for generators without permanent magnets during short circuits.
Introduces AGC 14x variants for applications without synchronisation needs.
Shows example application setups for AGC 145 and AGC 146 with generator units.
Details setup procedures using display, PC software, and quick setup options.
Explains designing applications through the utility software and selecting configurations.
Outlines options when units are removed from the power management system.
Details alarms that occur when auxiliary supply is removed from an AGC unit.
Describes alarms appearing on AGC units when CANbus lines have failures.
Sets how the power management system reacts to internal CAN failures.
Lists alarms displayed on AGC units for CANbus communication failures.
Allows setting fail classes for CANbus alarms to disconnect faulty units.
Highlights limitations for rental applications, especially regarding bus tie units.
Explains the multi-master system where generator units automatically perform power management.
Discusses fail classes and safety stop for AGC units with power management.
Allows adjusting plant operation to local, remote, or timer control.
Describes operation carried out on the display, with specific modes for island, takeover, export.
Explains plant starting via 'auto start/stop' input when 'remote' is selected.
Details how the plant is started based on plant mode and selection (Local/Remote).
Controls plant operation via up to eight internal command timers programmed using PC utility software.
Describes applications with multiple mains incomers, handling feeders, gensets, and bus tie breakers.
Defines terms for multiple mains applications, including feeders, generators, GBs, TBs, BTBs, and MBs.
Presents six available menus for setting up application functionality.
Explains applications using a tie breaker connected between gensets and the load bus.
Determines when to trip the tie breaker based on genset power capacity during mains failure.
Sets power capacity needed before the tie breaker can close in AMF applications.
Activates relays to connect load groups when a specific amount of power is available.
Illustrates connecting load groups using available power relays based on timer and power levels.
16 CAN flags accessible in M-Logic for setting active states via CAN commands without wiring.
Lists available digital inputs for AGC 145 and 146, detailing modes and configurability.
Explains the PID controller comprising P, I, and D regulators for slow closed-loop applications.
Shows the basic principle of the PID controller with its components and equation.
Explains the P regulator's immediate output change based on Kp gain and regulation deviation.
Focuses on the integral regulator's function to eliminate offset and its action time Ti.
Explains the D regulator's role in stabilizing regulation and reducing deviations.
Describes how relay outputs are used for control purposes in regulation.
Explains Auto, Manual, and Off regulation modes controlled via M-Logic.
Details different input types for regulators, scaled between -100% and 100%.
Allows choosing three types of outputs for the regulator, prioritizing based on lowest number.
Explains limiting regulator output using parameters and the inverse functionality.
Enables PID1 for idle run functionality, setting RPM and using M-Logic commands.
Lists parameter ranges related to the Designer's Reference Handbook.
