What to check if my Gefran Inverter shows a power phase loss alarm?
If your Gefran Inverter displays a power phase loss alarm, check the mains voltage and whether any protections upstream of the drive have been tripped.
How to fix gefran ADL500 Inverter DC link overvoltage alarm?
If your Gefran Inverter displays a DC link overvoltage alarm because the energy recovered from the voltage arriving at the drive power section is too high, you can extend the deceleration ramp. Alternatively, use a braking resistor connected to the specific terminals to dissipate the energy recuperation.
What causes a motor overtemperature alarm on a gefran ADL500?
A motor overtemperature alarm on your Gefran Inverter can be triggered by several factors: * A load cycle that is too heavy. * The motor being installed in an environment with a high ambient temperature. * A faulty motor blower fan. * Excessive load at slow speeds if the motor lacks a blower. * Operating the motor below its rated frequency. To address this, change the processing cycle or use a cooling fan to cool the motor.
What to do if Gefran Inverter shows an overcurrent alarm?
If your Gefran Inverter is showing an instantaneous overcurrent protection intervention alarm, it might be caused by incorrect settings of the current regulator parameters. You should check the current regulator parameters (menu 12.3) and inspect the wiring towards the motor.
How do I troubleshoot a ground fault alarm on a Gefran Inverter?
To troubleshoot a ground fault alarm (ground short circuit alarm) on your Gefran Inverter, check the drive and motor wiring. Also, ensure that the motor is not grounded.
Why is the heatsink temperature too high on my gefran ADL500 Inverter?
A heatsink temperature too high alarm on your Gefran Inverter can occur if the cooling fan isn't working correctly, the heatsinks are clogged, or the openings for cabinet cooling air are blocked. Verify the correct operation of the cooling fan, check that the heatsinks are not clogged, and ensure that the openings for the cabinet cooling air are not blocked.
What to do if there is a safety function issue on a gefran ADL500?
If you encounter a safety function issue on your Gefran Inverter, switch the drive off and then back on. If the error persists, contact the technical service centre.
What if my gefran ADL500 displays a message during power card recognition?
If your Gefran Inverter displays a message during recognition of power cards, and it's not possible to drive the motor, it may be because the power card is configured for a drive that is incompatible with the regulation card, the configuration of the power card is not compatible with the regulation card, or the configuration required is not available on the power card. Download the correct configuration on the power card.
What does a speed reference loss alarm mean on a gefran ADL500?
A speed reference loss alarm on your Gefran Inverter means the difference between the speed regulator reference and the actual motor speed is more than 100 rpm, usually because the drive is in the current limit condition. Check that the load is not excessive.
How to resolve a braking resistor overload alarm on a Gefran Inverter?
A braking resistor overload alarm on your Gefran Inverter means the current absorbed by the resistor is greater than the rated current. Check the size and condition of the braking resistor.
General| Series | ADL500 |
|---|---|
| Frequency Range | 50/60Hz |
| Cooling Method | Forced Air Cooling |
| Input Voltage | 380-480V |
| Output Voltage | 0-480V |
| Power Range | 0.75-500 kW |
| Control Method | V/F control, Sensorless vector control |
| Communication Protocols | Modbus RTU, CANopen |
| Protection Functions | Overcurrent, Overvoltage, Undervoltage, Overheating, Short circuit, Ground fault |
| Operating Temperature | -10°C to +50°C |
Manual updated according to specific software and application versions.
General industry terms, safety warnings, and company rights.
Explains warning, caution, ESD, and note symbols used in the manual.
General safety instructions and precautions for handling electrical drives.
Defines a qualified person and their necessary qualifications for safe operation.
Specifies that the drive system must only be used for its stated application.
Covers general warnings about hazardous voltages, mechanical parts, and qualified personnel.
Provides instructions for compliance with UL Mark, U.S. and Canadian electrical codes.
States limitations and conditions for using remote connection functions.
Lists specific features and functionalities available for different ADL500 models.
Details the main components of the inverter's power section and control.
Explains how to identify the product using model codes, data plates, and DataMatrix codes.
General guidelines for transport, unpacking, and checking the device upon delivery.
Specifies temperature, humidity, and air pressure limits for storage and transport.
Details environmental requirements for installation location, altitude, and operating conditions.
Lists relevant standards for electrical safety, EMC, and approvals.
Outlines the different motor control modes supported by the ADL500.
Covers speed control precision and limits for various control modes.
Details torque resolution, precision, direct control, and current limitation.
Specifies overload capacity and switching frequency for different models.
Provides details on input voltage, unbalance, and network connection types.
Lists maximum output voltage, frequency, and derating factors.
Explains output current derating based on overload conditions.
Details how switching frequency is affected by drive internal temperature.
Provides graphical data for ambient temperature reduction coefficients.
Specifies the minimum waiting time before internal access for safety.
Lists no-load power consumption values for different drive sizes.
Provides heat dissipation, fan capacity, and cabinet opening data.
Details dimensions and weights for different drive sizes.
Recommends fast-acting fuses for network side protection.
Recommends input chokes for limiting current and improving reliability.
Lists AC input chokes with specifications for different ADL500 sizes.
Lists recommended AC output chokes for motor protection.
Provides recommended combinations of external braking resistors.
Notes standard internal EMC filter for compliance with EN 12015.
Describes the ultracapacitor module for energy recovery and storage.
Specifies maximum inclination angle and required clearances for proper air flow.
Shows diagrams and recommends screws for mounting the drive.
Specifies requirements for using RCDs, particularly type B RCDs.
Provides a detailed map of terminals and status LEDs on the ADL500 drive.
Details power terminals, connections, cable cross-sections, and shielding.
Lists power terminals, their description, and connection availability for different models.
Provides guidelines for proper installation to ensure electromagnetic compatibility.
Shows a block diagram of the inverter's power section and its main functions.
Mentions the standard internal EMC filter for EN 12015 compliance.
Explains how to connect optional AC and DC chokes.
Covers cable cross-sections and I/O connections for digital, analog, and relay signals.
Specifies cable cross-sections and tightening torques for various terminals.
Details connections for different types of encoders (XER, XE terminals).
Technical specifications for SinCos encoder connections.
Technical specifications for sinusoidal encoder connections.
Technical specifications for EnDat encoder connections.
Technical specifications for BiSS encoder connections.
Technical specifications for EnDat Full Digital encoder connections.
Technical specifications for digital encoder connections (TTL Line Driver).
Describes the need for a resistive divider for single-ended configurations.
Explains using an incremental encoder output with TTL Line Driver levels.
Explains rotor position knowledge and automatic/manual phasing procedures.
Details the connection for the +24V external power supply.
Explains the connection for the Safety STO terminals and its management.
Lists the meaning and status of the drive's LEDs.
Details the RJ45 port for Modbus TCP and HTTPS communication.
Explains IP address acquisition and network configuration for PC communication.
Describes the CANopen interface for industrial system communication.
Details the RJ45 port for connecting the optional programming keypad.
Describes the USB port for saving parameter data to memory.
Mentions the port for the optional external Wi-Fi module.
Presents various connection diagrams for regulation potentials and digital I/O.
Shows diagrams for regulation potentials and digital I/O connections.
Shows typical wiring diagrams for ADL550 and ADL530 models.
Shows typical wiring diagrams for ADL510 model.
Illustrates emergency connection diagrams for EMS module.
Details emergency connection with an EMS module for power failure scenarios.
Shows wiring for emergency operation using a UPS.
Diagrams a lift system with integrated safety function and single contactor.
Diagrams for contactorless connections for asynchronous and synchronous motors.
Explains emergency maneuver connection for synchronous motors.
Discusses different types of braking and internal braking unit operation.
Introduces the optional keypad, its display, and membrane keys.
Describes the function of each key on the keypad.
Explains the meaning of the status indicator LEDs on the keypad.
Guides the user through navigating the keypad menus and displaying parameters.
Explains how to navigate between the first and second level menus.
Details how parameters are displayed, including their values and descriptions.
Explains how to scroll through displayed parameters.
Describes how to access and view the list of last modified parameters.
Explains how to quickly locate parameters by entering their number.
Guides the user through modifying parameter values.
Explains how to modify binary (On-Off) parameters.
Describes how to modify LINK parameters referencing other parameters.
Explains how to modify parameters with values from a selection list.
Details how to execute commands and interpret their status.
Explains how to save parameter settings to non-volatile memory.
Guides setting language and access level for the display.
Sets the parameter displayed automatically at drive power-on.
Configures the display backlight behavior.
Explains how alarm pages are displayed and how to navigate them.
Details the procedure for resetting alarms and clearing the alarm page.
Explains how operator messages are displayed and managed.
Explains saving and recovering parameter settings using USB memory.
Guides saving and loading drive parameters to/from USB memory.
Explains how to switch between Asynchronous and Synchronous motor control types.
A guided procedure for initial drive setup, including language, application, and parameters.
Guides the user through selecting the drive's operating language.
Guides the user through selecting the drive's application software.
Explains loading parameters from a USB drive for ADL550/530.
Guides setting encoder parameters based on the motor's encoder type.
Guides selecting motor data from USB for ADL550/530.
A guided procedure for quick start-up of asynchronous motors.
Guides setting the communication mode for the drive.
Guides setting encoder parameters, warning about incorrect configuration.
Guides setting motor parameters from the data plate.
Guides inputting mechanical system data like cabin speed and weight.
Guides setting speed references and multispeed values.
Guides the autotune procedure for measuring motor parameters.
Guides saving the configured parameters to maintain settings after power-off.
A guided procedure for quick start-up of brushless motors.
Guides setting the communication mode for the drive.
Guides setting encoder parameters, warning about incorrect configuration.
Guides setting motor parameters for brushless motors.
Guides inputting mechanical system data for brushless motors.
Guides setting speed references for brushless motors.
Guides autotune and encoder phasing for brushless motors.
Guides saving the configured parameters for brushless motors.
Explains how alarms are indicated and lists common alarm conditions and solutions.
Alarms for drive overload, motor overload, and braking resistor overload.
Alarms related to phase loss, bus faults, and I/O errors.
Alarms for encoder faults, speed feedback loss, and overspeed conditions.
Alarms related to safety functions, power supply, and phase loss.
Alarms related to parameter saving, loading, and PLC configuration.
Alarms for system errors, user errors, parameter errors, and PLC application issues.
Lists alarms specific to the EFC application.
Alarms for contactor, door feedback signals not matching commands.
Alarms for brake failure, safe brake test, and battery status.
Alarms related to speed limits, up/low limits, and external faults.
Explains causes and solutions for speed feedback loss alarms based on encoder type.
Details causes and solutions for speed feedback loss with digital incremental encoders.
Details causes and solutions for speed feedback loss with sinusoidal and SinCos encoders.
Details causes and solutions for speed feedback loss with SSI absolute encoders.
Details causes and solutions for speed feedback loss with EnDat absolute encoders.
Explains how to reset speed feedback loss alarms.
Details encoder error alarms and their causes.
Lists and explains various messages displayed by the drive.
Explains messages related to loading default parameters.
Explains messages related to motor autotune procedures.
Explains messages related to motor autotune and phasing.
Messages for power config, parameter saving/loading, and PLC configuration errors.
Messages for system errors, user errors, parameter errors, and PLC application issues.
Messages for key expiration, parameter errors, and firmware update failures.
Messages for encoder errors and communication issues.
Guides the installation of optional expansion cards like EXP-IO1 or EXP-DCP.
Guides the installation of optional expansion cards like EXP-IO1 or EXP-DCP.
Details the EXP-IO1 card, adding digital inputs and relay outputs.
Details the EXP-DCP card for remote control via DCP3/DCP4 protocols.
Lists features for digital inputs, relay outputs, and analog inputs.
Features of digital and enable hardware inputs (PNP/NPN).
Features of relay outputs (NO/NC contacts).
Features of analog inputs for voltage or current signals.
Features of fast input inputs used for freeze functions.
Features of the Safe Torque Off input signal.
Features of the Safe Torque Off output signal.
Guides selection between voltage and current signals for analog input 1.
Guides configuring PC network settings for ADL500 communication.
Introduces the brake monitoring function and its requirements.
Introduces the brake monitoring function and its requirements.
Guides the configuration and activation of the brake fault alarm function.
Explains how to reset the brake fault alarm.
Explains how to disable the brake fault alarm function.
Provides steps for testing the brake fault alarm function.
Recommends periodic testing and checking alarm logs for brake fault function.
Lists common faults, possible causes, and solutions for brake monitoring.
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