DELTA ECMA-C10602SS Série ASDA-A2 Moteur servo AC 200 W

Overview & Engineering Value

The ECMA-C10602SS (ECMAC10602SS) is an industrial-grade synchronous AC servo motor engineered for high-dynamic, high-precision motion control applications within the Delta ASDA-A2 platform. Operating at a rated speed of 3000 r/min with a 200 W power output, this motor delivers the rapid acceleration and deceleration profiles required by high-speed electronic assembly lines, laboratory automation, textile machinery, and precise pick-and-place mechanisms.

The integrated 20-bit incremental optical encoder provides exceptional angular resolution, allowing the host drive to detect and correct sub-arcsecond position variations. By incorporating a heavy-duty holding brake and a rugged oil seal, this unit ensures immediate mechanical stabilization during power loss and protects internal windings from fluid ingress, minimizing unexpected system downtime in volatile production environments.

System Configuration & Mechanical Architecture

The motor belongs to the Electrical Commutation Motor (ECM) family and features a 60 mm frame size optimized for tight space constraints within dense machine layouts. It operates on a 220 V input standard, aligning with the electrical bus infrastructure of standard industrial control panels.

The mechanical interface is configured as an "S-Type" variant, which integrates a specialized shaft geometry featuring a standard keyway and screw hole alongside a built-in electromagnetic holding brake. To ensure compatibility with harsh factory floors where lubricants, cutting fluids, or cooling agents are present, the front flange is fully sealed with an industrial-grade oil seal, preventing fluid migration along the shaft into the motor housing.

Hardware Specifications

Technical Queries & Troubleshooting

• What is the functional difference between the integrated holding brake and a dynamic braking system?

  The electromagnetic brake built into the ECMA-C10602SS is strictly a static holding brake. It is designed to lock the motor shaft in position when the drive is unpowered or in an emergency stop condition to prevent vertical axes from dropping due to gravity. It must never be used to decelerate a moving load, as the friction pads will experience rapid wear and premature mechanical failure.

• How does the 20-bit incremental encoder behave during a complete power failure?

  Because the encoder is an incremental type, it loses absolute position tracking when power is disconnected from the control system. Upon system reboot, the PLC or motion controller must execute a homing routine to re-establish the machine's absolute reference point. For applications requiring retention of position coordinates without homing sequences, an absolute encoder motor variant must be utilized.

• What maintenance protocols are required for the integrated oil seal?

  The oil seal requires that the oil level in the connected gearbox or machine housing remains below the centerline of the motor shaft during stationary periods. Ensure that the oil seal is continuously lubricated by the splash or oil bath of the gear mechanism; running the oil seal completely dry for extended operational hours will cause thermal degradation of the synthetic rubber lip, resulting in eventual sealing failure.

Field Commissioning & Safety Protocols

Shaft Alignment and Mechanical Coupling

When mating the 60 mm motor frame to a ball screw or planetary gearbox, use a high-quality flexible coupling. Rigid alignment mismatches exceeding 0.03 mm will induce cyclic radial loads on the front bearing, accelerating mechanical fatigue, causing premature oil seal wear, and introducing high-frequency positioning ripple into the servo loop. Never strike the shaft with a hammer during keyway installation, as this deconstructs the internal optical encoder disk.

Power and Encoder Cable Separation

Route the motor power cable (including the holding brake lines) and the low-voltage encoder cable through separate industrial conduits or track chains. The power cable carries high-frequency PWM switching voltages from the drive that can couple capacitive noise into the encoder's differential pairs. Ensure the encoder cable shield is grounded exclusively through the outer shell of the CN2 connector on the drive side.

Environmental and Thermal Management

Mount the motor in a location that allows unrestricted convective airflow around the aluminum stator fins. If the motor is nested within an enclosed mechanical housing where ambient temperatures exceed 40 deg C, external forced-air cooling must be directed at the motor body. Monitor internal winding temperatures via the drive software parameters to ensure they do not exceed the Class B insulation limit of 130 deg C under continuous duty cycles.