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Warranty
Wake Industrial Warranty
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Product Description
At the heart of advanced industrial automation lies the RAC3.5-150-460-D01-W1-220 main spindle drive controller, a beacon of Indramat's ingenuity and craftsmanship. This drive controller is meticulously crafted to regulate and control the main spindle motors in industrial machinery with remarkable accuracy. With a digital set-point interface, this model not only enables precise control but also fosters a harmonious synergy with digitally-oriented automation systems. The unit's digital interface allows for nuanced control of spindle speeds and torque, making it a cornerstone in applications such as CNC machining centers, where operational precision is not just desired but essential. This controller addresses the need for a robust digital communication channel, capable of interpreting complex commands and translating them into smooth mechanical action. The RAC3.5-150-460-D01-W1-220 thrives under a power supply of 3 x AC 380 - 460V at 50 - 60 Hz and a control voltage of AC 230 V. It stands as a testament to its ability to mesh seamlessly into various industrial settings, accommodating different electrical standards with ease. Its built-in fan cooling system ensures optimal performance by maintaining the unit at a safe operating temperature, thus safeguarding the internal components from the thermal stress associated with high-capacity operations. Within the tough exterior of the RAC3.5-150-460-D01-W1-220 lies a device capable of enduring an ambient temperature range of +5 to +45 degrees Celsius. This resilience makes it suitable for deployment in a variety of environmental conditions, from the heat-intensive foundry floor to the precision-required climate of an automotive assembly line. Indramat's RAC3.5-150-460-D01-W1-220 also boasts an efficient regeneration output of 27 kW, highlighting its sustainable approach to energy consumption. This is particularly beneficial in cycles of dynamic braking, where the regenerated energy can be harnessed, contributing to the overall energy efficiency of the system it serves.