To Next PageTo Next PageHow to troubleshoot no response from Exlar Controller actuator?
If your Exlar Controller actuator isn't responding, start by checking the drive for any fault indications via I/O or the Expert software. Ensure that the drive is receiving power and is enabled. Also, verify that all wiring connections are correct.
What to do if Exlar Controller actuator housing vibrates during motion?
If the Exlar Controller actuator housing moves or vibrates during shaft motion, first check the actuator mounting to ensure it is securely fastened. Also, examine the drive gain settings, as improper tuning can cause these issues.
Why is Exlar Controller actuator enabled but operating erratically?
If your Exlar Controller actuator seems enabled but operates erratically, examine all gain settings, as the drive may be improperly tuned. Also, check for any load irregularities or excessive compliance.
Why is my Exlar Controller actuator overheating?
If the Exlar Controller actuator is overheating, check the gain settings, as a poorly tuned amplifier can cause excessive current to be applied to the motor. Unfortunately, for issues related to insufficient cooling, high ambient temperature, operation outside continuous ratings, or over voltage limits, it is recommended to contact Exlar engineering.
What to do if Exlar Controller output rod rotates during motion?
If the output rod of your Exlar Controller rotates during motion, preventing proper linear movement, install an Exlar anti-rotation assembly or incorporate anti-rotation into the application.
Why Exlar Controller actuator cannot move load?
Your Exlar Controller actuator may not be able to move the load if the load is too large, there's excessive side load, misalignment of the output rod, the current limit in the drive is set too low, or the power supply has insufficient current capacity.
Covers lubrication, mounting configurations, and general mounting considerations.
Details grease type, operating range, and cold temp considerations.
Lists standard mounting options like Clevis, Side Mount, and Flange.
Emphasizes minimizing misalignment and avoiding side loads.
Diagram of system architecture with I/O, communication, and power connections.
Describes available linear and rotary versions and frame size options.
Details input voltage, I/O power, digital/analog specs, and environmental data.
States that power components are contained within the actuator housing.
Discusses voltage ranges, current requirements, and factors affecting power supply choice.
Wiring diagram for using an un-regulated supply for logic and bus power.
Wiring diagram for regulated supply with diode isolation.
Pin assignments and wire colors for M23 connectors.
Pinout and wire color for M23 19-pin I/O connectors.
Terminal board pinouts for 75/90mm models with different I/O options.
User wiring method for CANopen on 75/90mm models.
Connector option for CANopen on 60mm actuators.
Diagram for using separate power supplies for bus and I/O.
Configuration using a single supply for bus and I/O power.
Details input voltage range, current, impedance, and update rate.
Specifies operating voltage, current, short circuit protection, and update rate.
Diagram showing electrical connections for the actuator brake option.
Details voltage input range, impedance, resolution, and update rate.
Specifies current output range, load range, and resolution.
Describes the IA4 option for isolated analog and digital I/O.
Provides details on battery lifespan for the absolute feedback counter.
Specifies where the battery is located on different actuator models.
Instructions for replacing the battery in the absolute feedback system.
Troubleshooting steps for an actuator that does not respond.
Steps to diagnose erratic or non-operational behavior despite power.
Checks for load capacity, friction, alignment, and power supply.
Troubleshooting for unwanted actuator movement or vibration.
Solutions for output rod rotation instead of linear motion.
Diagnosing and resolving actuator overheating issues.
Step-by-step guide for disassembling and re-greasing roller screws.
Instructions for taking apart the actuator to access the roller screw.
Details components requiring grease and proper application methods.
Steps for disassembling the actuator for complete maintenance.
Specifications and pinout for the I/O cable accessory.
Overview of the TTPS1048 unregulated 48 VDC power supply.
Explanation of the TTSR1 shunt regulator for over-voltage protection.
Details the purpose and design of the TTSR1 shunt regulator.
How the shunt regulator functions to manage regeneration voltage.
Description of the TDCESF1 accessory for power conditioning.
Details the terminal connections and configuration of the TDCESF1.
General| Control Modes | Position, Velocity, Torque |
|---|---|
| Continuous Current | Up to 10 A |
| Peak Current | Up to 20 A |
| Communication | RS-232, RS-485 |
| Feedback | Incremental Encoder, Absolute Encoder, Resolver |
| Motor Type | Brushless DC (BLDC) |
| Protection | Over-voltage, Under-voltage, Over-current, Over-temperature |
