MDD065A-N-060-N2G-095GB0
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The MDD065A-N-060-N2G-095GB0 synchronous motor delivers a nominal speed of 6000 min-1, a continuous torque at standstill of 0.8 Nm, a peak current of 11.6 A, and weighs 3.2 kg. Part of the MDD Synchronous Motors series by Bosch Rexroth Indramat, it features IP65 protection and a rotor moment of inertia of 1.4 x 10-4 kgm2.
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Product Description:
The Indramat MDD065A-N-060-N2G-095GB0 AC Servo Motor features a plain output shaft, robust construction and stable speed control. It is ideal for continuous duty applications requiring accuracy and torque efficiency.
The MDD065A-N-060-N2G-095GB0 AC servo motor delivers a theoretical maximum torque of 2.3 Nm that is suitable for heavy load tasks. This high torque output also enables precise actuation in robotic or CNC based systems. The design of the servo motor includes a plain output shaft for direct mechanical integration. The servo motor is designed for optimal performance within an ambient temperature range of 0 °C to +45 °C. It incorporates thermal protection mechanisms to maintain operational stability across this range. The motor is also rated for high humidity environments capable of continuous operation at up to 95% relative humidity (non condensing). The thermal time constant of the motor is rated at 30 minutes. This allows the motor to run continuously without overheating. The compact structure of the servo motor supports high speed (6000 rpm) operation while minimizing vibrations and mechanical stress. It is designed to work with compatible drive controllers and offers closed loop control for enhanced positioning accuracy. The servo motor comes without a blocking brake.
The MDD065A-N-060-N2G-095GB0 AC servo motor from the MDD series is equipped with DSF (digital servo feedback) for precise position control. This digital servo system uses indirect relative position feedback via the integrated intelligent digital drive controller. The relative encoder data is stored within the drive and can be transmitted to the NC master controller. This configuration removes the requirement for a separate incremental encoder on the motor. However, since the system does not retain absolute position after power loss, the axis must undergo a homing sequence upon each power up to re establish the reference position.
Frequently Asked Questions about MDD065A-N-060-N2G-095GB0:
Q: Can the MDD065A-N-060-N2G-095GB0 AC servo motor handle heavy torque loads in industrial systems?
A: This model offers a theoretical maximum torque of 2.3 Nm ideal for demanding robotic or CNC applications. The motor sustains torque efficiency under consistent high-load conditions without performance loss.
Q: Does the MDD065A-N-060-N2G-095GB0 AC servo motor support direct shaft coupling for mechanical setups?
A: Yes, the motor features a plain output shaft that allows direct integration into mechanical systems. This helps reduce assembly complexity and maintains shaft alignment during continuous duty applications.
Q: Will the MDD065A-N-060-N2G-095GB0 servo motor remain stable in humid or extreme temperature environments?
A: The motor performs reliably at up to 95 percent relative humidity in non condensing settings. It operates within a temperature range of 0°C to +45°C with built-in thermal protection.
Q: How does the MDD065A-N-060-N2G-095GB0 model ensure high-speed operation without vibration issues?
A: Its compact structure is optimized for 6000 rpm while minimizing mechanical stress and vibration. This makes the motor ideal for precision-driven high-speed applications with minimal wear.
Q: Does the MDD065A-N-060-N2G-095GB0 AC motor retain positional data after shutdown?
A: No, it uses indirect relative position feedback via DSF and the integrated digital drive. After power loss the axis requires a homing sequence to reestablish its reference position.
