What to do if I get a DC link undervoltage alarm on my gefran installationSIEIDrive ADL300 Inverter?
If you're getting a DC link undervoltage alarm, it could be due to the mains voltage being too low or overextended, or poor cable connections. Check the connections and mains to resolve the issue.
How to fix a gefran installationSIEIDrive ADL300 Inverter when the heatsink temperature is too high?
If the heatsink temperature is too high, verify the correct operation of the cooling fan. Also, check that the heatsinks are not clogged and that the openings for the cabinet cooling are unobstructed.
What causes the IGBT module temperature to be too high in a gefran installationSIEIDrive ADL300 Inverter and how to fix it?
If the IGBT module temperature is too high, verify the correct operation of the cooling fan. Check that the heatsinks are not clogged and ensure that the openings for the cabinet cooling are unobstructed.
What to do if my Gefran Inverter shows an instantaneous overcurrent alarm?
An instantaneous overcurrent alarm may be due to incorrect current regulator parameters. Check these parameters and also inspect the wiring towards the motor.
How to resolve a DC link overvoltage alarm on a gefran installationSIEIDrive ADL300?
To resolve a DC link overvoltage alarm, extend the deceleration ramp. Alternatively, use a braking resistor to dissipate the energy.
What causes high input air temperature in a gefran installationSIEIDrive ADL300 Inverter?
If the input air temperature is too high, check correct fan operation and that panel cooling air openings are unobstructed. Also, check the temperature in the electrical panel.
What should I check if my gefran installationSIEIDrive ADL300 has a ground short circuit alarm?
If you have a ground short circuit alarm, check the drive and motor wiring. Also, check that the motor is not grounded.
What to do if there is an instantaneous overcurrent in the gefran installationSIEIDrive ADL300 drive?
Switch the drive off and then switch it on again. Also, check the condition of the braking resistor.
General| Category | Inverter |
|---|---|
| Series | SIEIDrive ADL300 |
| Enclosure Rating | IP20 |
| Output Voltage | 0-480 VAC |
| Output Frequency | 0-400Hz |
| Control Mode | V/F control, Sensorless vector control |
| Communication Interfaces | Modbus RTU, CANopen |
| Protection Features | Overvoltage, Undervoltage, Overcurrent, Overtemperature |
| Operating Temperature | -10°C to +50°C |
| Storage Temperature | -20°C to 65°C |
| Humidity | 5-95% (non-condensing) |
| Input Voltage | 380-480 VAC |
Explains symbols used in the manual to indicate warnings, cautions, and important notes.
Provides general instructions for user safety and preventing product damage.
Defines the qualifications required for personnel working with the equipment.
Highlights general warnings about hazardous voltages, mechanical parts, and potential dangers.
Warns about residual voltage in DC link capacitors and safe practices when working on the device.
Warns about installing drives in hazardous areas with flammable vapors or dusts.
Provides instructions for compliance with UL requirements and electrical codes.
Details the standard features of the ADL300 Basic model for lift applications.
Details the ADL300 Advanced model, offering maximum programmability with I/O options.
Highlights specific features for lift applications like speed and position control.
Lists additional features such as autotuning, sensorless control, and communication interfaces.
Provides a block diagram and explanation of the inverter's main components.
Explains how to identify the inverter model and its technical data via the product code and data plate.
Summarizes the standard configurations for ADL300 Advanced and Basic models with expansion cards.
Provides guidelines for proper transport, storage, unpacking, and delivery checks.
Specifies the acceptable temperature, humidity, and air pressure ranges for storage and transport.
Details environmental conditions for installation location and operating temperature.
Lists relevant standards for climatic conditions, electrical safety, vibration, and EMC compatibility.
Specifies the precision of speed control, speed limits, and torque control.
Provides electrical data for input voltage, current, and DC-link capacity for various drive sizes.
Details output current, motor power, and reduction factors for different drive sizes and conditions.
Specifies the minimum time required for safe access to internal parts after mains disconnection.
Lists the no-load consumption values for different drive sizes with fan on/off.
Provides information on internal fans and minimum cabinet opening required for cooling.
Details the physical dimensions and weights for different drive sizes.
Details the recommended external fuses for network side protection.
Recommends input chokes for limiting RMS current, improving capacitor life, and reducing harmonics.
Recommends AC output chokes for standard motors or long cable runs to maintain voltage waveform.
Lists recommended combinations of external braking resistors for use with internal braking units.
Provides details on optional external filters for EMC compliance and conducted emissions.
Specifies maximum inclination angle and required clearances for proper air flow.
Illustrates the mounting and fastening points for different drive sizes.
Lists the recommended screws, washers, and tightening torque for securing the drive.
Details wiring procedures for the power section, including cable cross-sections and terminals.
Specifies cable cross-sections, stripping lengths, and tightening torques for power terminals.
Provides instructions for connecting cable shielding to reduce electromagnetic interference.
Offers guidelines for proper installation to ensure safe and trouble-free operation and minimize radio interference.
Illustrates the block diagram of the power section including filters, converters, and braking units.
Describes the standard internal EMI filter and its compliance with EN 12015.
Shows typical power line connection diagrams for different drive series.
Explains how to connect optional AC and DC chokes for improved performance.
Provides wiring diagrams for connecting the motor to the drive for different drive series.
Shows wiring diagrams for connecting optional braking resistors for braking functions.
Details the regulation section, including identification of cards and terminals.
Specifies cable cross-sections, stripping lengths, and tightening torques for regulation terminals.
Provides terminal strip and connection diagrams for various I/O expansion cards.
Describes feedback connections for ADL300B series and references ADL300A to appendix.
Details the connection for SinCos encoders with 2 Freeze functionality.
Details the connection for Sinusoidal encoders with 3 Channels + 2 Freeze functionality.
Details the connection for EnDat encoders with 2 Freeze functionality.
Details the connection for EnDat Full Digital encoders with 2 Freeze functionality.
Details the connection for TTL/HTL digital encoders with 2 Freeze functionality.
Explains the need for a resistive divider for single-ended encoder configurations.
Details the connection for SinCos encoders with repetition functionality.
Describes the repeat encoder output function for servomotor feedback.
Explains the connection of the integrated safety card for safety function management.
Provides typical wiring diagrams for regulation potentials and digital I/O.
Illustrates typical connection diagrams for ADL300A drive sizes.
Shows wiring for emergency power failure condition using UPS or EMS module.
Details the connection for emergency maneuver with operator present for synchronous motors.
Describes the serial interface for PC connection and point-to-point communication.
Explains the point-to-point connection between the drive and PC using the RS232 port.
Describes the CANopen interface for industrial systems and network connection.
Details the connection of optional keypads to the multifunction keypad connector.
Explains how to save and use drive parameters with a Secure Digital memory card.
Describes the integrated and optional keypads, including their LEDs and membrane functions.
Explains how to navigate menus, display parameters, and change values using the integrated keypad.
Details the procedure for changing numerical, BIT, LINK, and ENUM values via the keypad.
Lists possible error messages that may appear during parameter modification.
Explains how operator messages are displayed and how to close them.
Describes how alarms are displayed, scrolled, and reset using the keypad.
Guides the user through the initial setup process for the drive.
Explains the procedure for motor self-tuning to optimize drive performance.
Describes how to switch between asynchronous and synchronous motor operation modes.
Explains how to navigate menus, display, and modify parameters using the optional keypad.
Details the process for modifying numeric, binary, LINK, and ENUM parameters.
Explains the methods for saving parameters to the drive's non-volatile memory.
Covers display settings like language selection and access mode (Easy/Expert).
Explains how alarms are displayed and how to reset them.
Describes how operator messages are displayed and managed.
Details saving and recovering parameter settings to the keypad or memory card.
Guided procedure for quick start-up using the integrated keypad for asynchronous motors.
Details electrical connection steps required before powering the drive.
Guided procedure for quick start-up using the optional keypad for brushless motors.
Details electrical connection steps required before powering the drive.
Guides the user through setting motor parameters based on the motor data plate.
Explains the motor autotune procedure for measuring motor parameters.
Details setting encoder parameters, including resolution and supply voltage.
Describes the procedure for encoder phasing, essential for brushless motor regulation.
Guides setting maximum motor speed and system speed values.
Details entering system weights like cabin, counterweight, and load weights.
Covers setting application-specific parameters like multispeed values and ramp values.
Explains how to save system parameters after configuration and autotuning.
Provides a final check of parameter settings, including inertia and regulation mode.
Lists and explains various drive alarms, their causes, and solutions.
Details speed feedback loss alarms based on encoder type and how to interpret error codes.
Describes encoder error alarms, their causes, and solutions for setup or compatibility issues.
Explains how system messages are displayed and managed during operation.
Details the configuration options for ADL300 Advanced, including I/O and encoder expansion cards.
Provides step-by-step instructions for inserting I/O and encoder expansion cards into the drive.
Details the features and terminal connections for various I/O expansion cards.
Explains encoder types, their support by the drive, and relevant expansion cards.
Describes encoders for motor speed and position feedback and their configuration.
Explains the rotor phasing procedure necessary for correct Brushless regulation.
Details specific encoder expansion cards like EXP-DE-I1R1F2-ADL.
Describes the automatic brake monitoring function and its implementation.
Guides on activating, configuring, and testing the brake fault alarm function.
Outlines the necessary maintenance procedures for the brake fault alarm function.
Provides solutions for common faults related to the brake fault alarm.
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