What to do if I get a DC link undervoltage alarm on my gefran SIEIDrive 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 SIEIDrive ADL300 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 SIEIDrive 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 SIEIDrive ADL300 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 SIEIDrive 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 SIEIDrive 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 Inverter 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 SIEIDrive ADL300 drive?
Switch the drive off and then switch it on again. Also, check the condition of the braking resistor.
What to do if Gefran Inverter drive is powered but does not work?
If the Gefran Inverter is powered but not working, it could be due to several reasons. First, check the ENABLE signal (contacts 9=+24vDC, 10=COM for the basic version) to ensure the electrical level is correct and not missing or inverted. Also, verify the SAFETY connector (contacts 1=+24vDC, 2=COM) for the SAFETY ENABLE signal. If the SAFETY OK signal isn't working, check for a Safety Failure Alarm. Finally, ensure the ADL300 configuration is correctly set up.
General| Category | Inverter |
|---|---|
| Series | SIEIDrive ADL300 |
| Cooling Method | Forced Air Cooling |
| Dimensions | Varies by model |
| Weight | Varies by model |
| Enclosure Rating | IP20 |
| Input Voltage | 380V - 480V AC |
| Output Voltage | 0V - 480V AC |
| Frequency Range | 0-400 Hz |
| Control Method | V/F Control, Sensorless Vector Control |
| Communication Protocols | CANopen |
| Protection Features | Overvoltage, Undervoltage, Short Circuit |
| Operating Temperature | -10°C to +50°C |
| Humidity | 5% to 95% non-condensing |
Explains the reasons for using integrated safety functions in machinery and plant control systems.
Describes the STO safety function and its role in preventing unexpected motor movements and voltages.
Essential information and instructions for functional safety, installation, and commissioning procedures.
Defines responsibilities of manufacturer and user/operator regarding machine safety and risk assessment.
Outlines implementing and selecting safety functions based on application requirements and risk assessment.
Details functional and architectural components of the ADL300 drive system, including its safety part.
Specifies Safe Torque Off (STO) function behavior and operational logic based on enable signals.
Describes the safety integrity level (SIL3) and fault tolerance of the ADL300 STO function.
Explains hardware and software mechanisms for detecting and reacting to faults within the safety system.
Discusses the integrated safety function of ADL300 drives and conditions for access and modification.
Provides guidance on electrical connections and correct usage of the STO function.
Details predefined sequences for enabling and disabling the STO safety function.
Lists essential electrical precautions and environmental conditions for safe drive unit operation.
Covers expected operational life, fault reporting, and periodic maintenance information.
Outlines periodic tests to verify drive unit safety function and input/output signal control.
Provides a table to identify and resolve issues related to drive functionality and safety.
Illustrates a lift application design utilizing two contactors for car stopping.
Presents a lift system design using one contactor and ADL300 safety function for car stopping.
Details a lift system design using STO safety function without contactors for car stopping.
To Next Page