MPL-B430P-HJ72AA Allen‑Bradley MP‑Series AC Servo Motor new

• Brand
  Allen‑Bradley
• Model
  MPL-B430P-HJ72AA
• Product Name
  MP‑Series Low‑Inertia Brushless AC Servo Motor
• Dimensions
  115 mm frame diameter, overall length 212 mm
• Weight
  5.6 kg
• Place of Origin
  United States
• HS Code
  85015229
• Operating Temperature
  0 °C to +40 °C
• Storage Temperature
  ‑20 °C to +70 °C
• Power Supply
  460‑480 V
• Warranty
  12 month
• Status
  new and original

MPL-B430P-HJ72AA Allen-Bradley Servo Motor Electrical Input-Output Specifications

Power input: 3-Phase 400-480V AC main motor power supply;

Rated motor current: 5.4A;

Peak motor current: 16.2A;

Feedback input(encoder auxiliary power): 24V DC control power supply for encoder circuit;

Mechanical output: Rated power 2.2kW; Rated speed 5000RPM; Continuous stall torque 6.55N·m; Peak stall torque 19.8N·m;

Signal output: 2000-line incremental encoder differential digital feedback signal for position and speed closed-loop control;

Supported servo drive systems: Compatible with Allen-Bradley Kinetix 2000, Kinetix 6000, Kinetix 6200/6500, Kinetix 5500, Kinetix 5700 servo drive series; matched with ControlLogix / CompactLogix PLC platform, configured via Studio 5000 software.

Voltage summary:

 Main motor operating voltage: 3-Phase 400-480V AC

 Encoder auxiliary supply voltage: 24V DC

Current summary:

 Rated continuous motor current: 5.4A

 Peak motor current: 16.2A

 Encoder low-power current consumption supplied by 24V DC drive output.

MPL-B430P-HJ72AA Allen-Bradley Servo Motor Installation Steps

Safety Warning: Implement Lockout-Tag-Out procedures prior to all installation activities. Never strike or apply impact loads to the motor shaft. Misaligned mechanical coupling will result in premature bearing failure and permanent encoder damage.

Step 1 Pre-Installation Inspection
Confirm part number MPL-B430P-HJ72AA. Inspect the motor housing, output shaft and rotatable DIN-type connectors for transportation-related defects including cracks, dents and physical deformation. Verify compatible hardware: Kinetix 2000/6000/6200/6500/5500/5700 servo drives, ControlLogix or CompactLogix controllers, and Studio 5000 configuration software. Assess site operating conditions: ambient temperature shall be maintained between 0-40℃. The installation location must be free from excessive dust, oil mist and corrosive vapors. Adequate clearance shall be reserved for motor heat dissipation. Gather required components and tools: properly-specified shielded motor power cable, incremental encoder feedback cable, torque wrench, coupling assembly and mounting fasteners.

Step 2 Mechanical Mounting
Adjust the angled DIN connector to a convenient wiring orientation before securing the motor flange; maximum allowable rotation range is 180°. Thoroughly clean the motor mounting flange and mating machine surface to remove burrs, metal chips and residual debris and guarantee mounting flatness. Fasten the motor using flange-mount bolts and tighten to the official torque specification. Excessive torque may distort the motor housing. Fit the coupling or pulley onto the shaft with slow press-fit force. Hammering the shaft is strictly prohibited. Maintain precise coaxial alignment: parallel offset ≤0.1 mm, angular misalignment ≤0.2°. Fit the shaft key fully into the keyway without gaps. Mount safety guards for all rotating mechanical components.

Step 3 Cabling and Earthing
Deploy qualified shielded three-phase power cable and matched 2000-line incremental encoder feedback cable. Engage the circular DIN connectors for motor power and feedback signals. Tighten locking rings by hand plus an additional 1/4 turn. Do not use pliers to over-tighten. Provide sufficient cable slack for service purposes. Secure cables close to connectors with cable clamps to eliminate tensile and torsional stress on contact pins. Comply with minimum cable bending radius requirements. Connect the motor protective earth (PE) terminal to the cabinet single-point grounding busbar. Cable shielding shall be terminated at the drive end to optimize EMC noise immunity. Physically segregate high-power motor cables from low-level encoder signal cables; avoid long-run parallel routing.

Step 4 Electrical Termination
Ensure full power disconnection from the servo drive and confirm DC-bus residual voltage has been completely dissipated. Connect motor phase terminals U-V-W to the corresponding drive power output terminals. Insert the encoder feedback connector into the dedicated feedback port of the drive. The 24 V DC auxiliary supply for encoder electronics is provided by the servo drive. Perform comprehensive wiring check: verify correct phase sequence, no short-circuit conditions, firm pin contacts and reliable PE earthing.

Step 5 Pre-Power-On Check
Manually rotate the motor shaft. The rotation should be smooth, free of binding, scraping or unusual frictional noise. Recheck coupling alignment, mounting bolt torque, connector locking condition and earthing continuity. Clear foreign debris from all rotating zones and confirm mechanical safety guards are correctly fitted.

Step 6 Power-Up and Commissioning
Apply power to the servo system, launch Studio 5000, and download the correct electronic nameplate motor parameters. Complete motor auto-tuning routine and validate stable encoder position feedback. Carry out low-speed jog operation to check rotational direction, vibration level, acoustic noise and surface temperature. Execute full-load operational test, continuously monitor motor current, velocity and torque values, and confirm no fault or overload alarms are triggered.

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