MDD115C-N-015-N2L-130GA0

Product Description

The MDD115C-N-015-N2L-130GA0 is one of the most sophisticated productions of the reputable Rexroth Indramat; it is an industrial motor that is designed to convert electrical energy to kinetic energy and transmit kinetic energy in real-time. Under normal operating conditions, this industrial motor does not generate a noise pressure level that exceeds about 75 decibels; it also maintains an operational efficiency as high as 95 per cent. This industrial motor is particularly suitable for highly-dynamic applications that require a high power density, example of industrial machines compatible with this drive controller include paper processing machines, metal forming machines, textile machines and lots more. Although this industrial motor is designed to be very flexible in operation, industrial operators much verify the compatibility of the motor with the intended industrial machine; this is important to maintain operational efficiency and prevent dangerous motor movement in the industrial servo system.

The MDD115C-N-015-N2L-130GA0 industrial synchronous motor regulates its operational temperature via natural convection; however, if the motor is required for operation with industrial applications that require a continuous start-stop operation or a high radial load, an additional air blower must be integrated with the motor to support its temperature regulation process by surface cooling. The MDD115C-N-015-N2L-130GA0 industrial synchronous motor does not feature a blocking brake; however, it features an internal encoder that provides the drive controller with the digital signals it requires to accurately monitor and control the operation of the industrial motor in real-time.

The MDD115C-N-015-N2L-130GA0 industrial synchronous motor requires an input current of about 40.2 amperes; at this current, it generates an output torque of about 47-newton meters. However, if the motor is connected to an additional air blower, it will require an input current of about 64 amperes for optimum operation.