Product Description
The AM8072-2P21-0000 is a flagship servo motor capable of demanding industrial automation applications. As part of the AM Servo Motor Series, it incorporates a permanent magnet-excited three-phase synchronous motor engineered for maximum torque output. With a peak torque of 172 Nm, standstill torque of 54.6 Nm, and rated torque of 38.2 Nm, this motor generates formidable force for rigorous processes.
To efficiently harness its 8.00 kW rated power, the AM8072-2P21-0000 operates within a wide nominal voltage range of 100 to 480 V AC. Convection cooling reliably dissipates heat buildup, allowing extended run times. Supported by a standstill current of 20.6 A, smooth starts and stops are ensured even under heavy inertial loads. Meanwhile, the motor's large 92.2 kgcm2 rotor moment of inertia accommodates sizable external forces on the shaft.
Precision and flexibility are paramount in industrial control systems. The AM8072-2P21-0000 affords these qualities through its assortment of feedback options, including resolver, single-turn absolute encoder, Hiperface, multi-turn absolute encoder, OCT, and electronic nameplate. Application engineers can select the solution best matching specific motion requirements. Combined with the motor's 2000 min−1 rated speed, systems benefit from highly responsive torque regulation.
Meeting stringent production standards necessitates durability even in punishing environments. The AM8072-2P21-0000 endures continual cyclic stresses and ambient temperatures from +5 to +40°C through its robust housing. Compliant with international certifications such as CE and EAC, it contributes to workflow dependability. Outfitted with an M40 speedtec plug, rapid installation into electrical panels is simple and secure. Manufacturers gain additional peace of mind from the motor's torque constant of 2.65 Nm/A. This electro-mechanical property, along with convection cooling and power density, enables tightly synchronized coordination between torque demand and electricity consumption. Process efficiencies result from minimized energy waste.