How to resolve Error occurs when writing CANopen PDO via EEPROM in Delta ASD-A2-3043?
To resolve error occurs when writing CANopen PDO via EEPROM in Delta Servo Drives, when an error occurs when saving the current value into ROM, use NMT: Reset node or 0x6040.Fault Reset.
What to do if data range error occurs when accessing CANopen PDO object on Delta ASD-A2-3043?
If the data in the message has exceeded the data range of the specified object, NMT Maser send “Reset node“ command to its slave or reset the fault by sending the control word (0x6040) through CAN communication (the value of CANopen object 0x6040 should be reset).
What causes CANbus error on Delta ASD-A2-3043?
A CANbus error on Delta Servo Drives is caused by CANbus off or Error Rx/Tx Counter exceeding 128. NMT Maser send “Reset node“ command to its slave or restart the servo drive.
What to do if there is a U, V, W, GND wiring error on Delta Servo Drives?
If there is a U, V, W, GND wiring error on Delta Servo Drives, it means that the wiring connections of U, V, W (for servo motor output) and GND (for grounding) are in error. Follow the wiring steps in the user manual to reconnect the wiring and ground the servo drive and motor properly.
What to do if CANopen PDO object does not support PDO on Delta ASD-A2-3043?
If the specified object in the message does not support PDO, NMT Maser send “Reset node“ command to its slave or reset the fault by sending the control word (0x6040) through CAN communication (the value of CANopen object 0x6040 should be reset).
How to fix over current in Delta ASD-A2-3043?
If your Delta Servo Drive is showing an over current error, there are several potential causes and solutions: * A short circuit in the drive output: Eliminate the short circuit, ensuring no metal conductors are exposed. * Incorrect motor wiring: Rewire the motor following the wiring instructions in the user manual. * A faulty IGBT: Send the drive back to the distributors or contact Delta. * Incorrect control parameter settings: Reset to the default settings and then gradually adjust the values. * Unreasonable command: Use a less steep command or apply a filter to smooth the command.
What to do if Delta Servo Drives show Adjustment Error?
If your Delta Servo Drives are showing an adjustment error: * The analog input contact is incorrectly set back to zero: Correctly ground the analog input contact. * The detection device is damaged: If the error still occurs after reset, send the drive back to the distributors or contact with Delta.
What to do if Delta ASD-A2-3043 show Wrong setting of E-gear ratio?
If your Delta Servo Drives are showing the wrong setting of E-gear ratio because setting of E-gear ratio is wrong when power on the servo drive, modify the range of E-gear ratio and repower on the servo drive.
How to resolve The accessing address of EEPROM is out of range when using CANopen PDO in Delta Servo Drives?
To resolve the accessing address of EEPROM is out of range when using CANopen PDO in Delta Servo Drives, when the quantity of the data inside ROM is over the planned space, use NMT: Reset node or 0x6040.Fault Reset.
What causes excessive deviation in Delta Servo Drives?
Excessive deviation in Delta Servo Drives can be caused by: * Maximum deviation parameter setting is too small. If this is the case, increase the parameter setting value of P2-35. * Gain value is too small. If this is the case, correctly adjust gain value. * Torque limit is too low. If this is the case, correctly adjust torque limit value. * There is an overload. If this is the case, reduce external applied load or re-estimate the motor capacity.
General| Model | ASD-A2-3043 Series |
|---|---|
| Series | ASD-A2 |
| Category | Servo Drives |
| Output Power | 3.0 kW |
| Control Modes | Position, Speed, Torque |
| Communication Interface | RS-485, CANopen |
| Protection Class | IP20 |
| Operating Temperature | 0°C to 55°C |
| Storage Temperature | -20°C to 65°C |
| Weight | 3.5 kg |
| Power Supply | 3-phase 200-230VAC, 50/60Hz |
| Feedback System | Incremental Encoder |
| Protection Features | Overload, Overvoltage, Overtemperature |
| Humidity | 20% to 90% RH (non-condensing) |
| Vibration Resistance | 5.9 m/s² |
| Shock Resistance | 19.6 m/s² |
Specifies environmental requirements for servo drive and motor installation for optimal reliability.
Details correct mounting orientation and required clearance for ventilation to prevent malfunction.
Provides wiring information for connecting peripheral devices to the 220V series servo drives.
Details the terminal signals, names, and descriptions for connecting motors and regenerative resistors.
Explains the wiring methods for single-phase and three-phase power supplies for 220V servo drives.
Provides wiring information for connecting peripheral devices to the 400V series servo drives.
Details terminal signals, names, and descriptions for 400V series servo drives.
Explains the wiring methods for 400V servo drives, covering three-phase power supply.
Illustrates basic wiring diagrams for 220V series servo drives, including models with and without regenerative resistors.
Illustrates basic wiring diagrams for 400V series servo drives, covering models with and without regenerative resistors.
Details the CN1 connector's terminal layout for I/O signals, including digital and analog inputs/outputs.
Provides pin diagrams for the CN1 connector, showing digital, analog, and encoder signals.
Explains the function and wiring method for various signals connected to the CN1 connector.
Illustrates wiring diagrams for analog and pulse inputs, as well as digital outputs for CN1.
Details the CN5 connector for connecting external linear scales or encoders for full-closed loop control.
Provides standard wiring diagrams for 220V series servo drives in various control modes.
Illustrates the standard wiring for Position (PT) control mode with 220V series servo drives.
Illustrates the standard wiring for Position (PR) control mode with 220V series servo drives.
Illustrates the standard wiring for Speed Control Mode with 220V series servo drives.
Illustrates the standard wiring for Torque Control Mode with 220V series servo drives.
Provides standard wiring diagrams for 400V series servo drives in various control modes.
Illustrates the standard wiring for Position (PT) control mode with 400V series servo drives.
Illustrates the standard wiring for Position (PR) control mode with 400V series servo drives.
Illustrates the standard wiring for Speed Control Mode with 400V series servo drives.
Illustrates the standard wiring for Torque Control Mode with 400V series servo drives.
Describes the functions of the display, SHIFT, SET, DOWN, MODE, UP keys, and Charge LED.
Details the procedure for switching between modes and operating within each mode.
Guides through pre-operation checks like appearance, wiring, and component integrity before applying power.
Provides step-by-step instructions for correctly wiring and powering on the servo drive.
Explains how to perform a JOG trial run without load using software or DI control for testing.
Details the procedure for trial run in speed control mode, including digital input settings.
Outlines the procedure for trial run in position control mode, including digital input settings.
Provides procedures for estimating inertia ratio using JOG mode and performing auto/semi-auto tuning.
Visualizes the step-by-step process for tuning the servo system.
Illustrates the process of estimating inertia ratio, including checks for mechanical vibration.
Details the automatic tuning process, including inertia estimation and stiffness/bandwidth settings.
Lists servo drive alarms with descriptions, corresponding DO signals, and servo status.
Details CANopen communication alarms, their descriptions, and corrective actions.
Lists motion control alarms including loading errors, parameter range issues, and PR command overflows.
Provides causes and corrective actions for common servo drive alarms like Over current, Over voltage, and Under voltage.
Lists corrective actions for various alarms, including turning DI.ARST on or re-powering the servo.
Lists alarms related to absolute systems, including encoder voltage errors, gray code errors, and position loss.
To Next Page
