Overview
Manuals
Applications & Capabilities
How It Works
Features:
- Compax3 Single-axis standalone cabinet-mount drive
- 7.5 Amp continuous output current rating
- Three-phase 400V / 480V AC input power supply rating (delivering roughly a 6.2 kVA power output)
The C3S075V4 F10 I20 T40 M11 is a high-performance industrial-grade single-axis servo drive and controller manufactured by Parker Hannifin, belonging to its renowned Compax3S series. As its model name "C3S075V4" indicates, this is a standalone single-axis drive with a rated output current of 7.5 A, supporting three-phase 400/480 VAC voltage input and a rated output power of up to 6.2 kVA.
Designed for complex motion control, this device integrates a high-power power electronic inverter module and a high-speed microprocessor, and is widely used in packaging machinery, the printing industry, and automated production lines requiring high dynamic response and high-precision position control.
The C3S075V4 F10 I20 T40 M11 PARKER Servo drive controller unit may still be available for purchase and support from Moore Automated Company beyond End-Of-Life (EOL) by the manufacturer (OEM).
PARKER C3S075V4 F10 I20 T40 M11 Servo drive controller unit MANUAL(Datasheets), Link
Important Notice: Other accessories, manuals, cables, calibration data, software, etc. are not included with this equipment unless listed in the above stock item description. All prices are shown in USD.
The T40 electronic cam profile, combined with Profibus connectivity, makes this precise drive configuration very common in high-speed synchronous machinery, such as continuous packaging and winding systems (flying shears, rotary knives), multi-axis material handling and synchronous printing presses, flying saws, and precision textile manufacturing.
The C3S075V4 F10 I20 T40 M11 employs typical closed-loop vector control technology and real-time trajectory planning. When receiving motion commands from the main control system via Profibus DP (I20 interface), the built-in CoDeSys motion controller (T40 level) invokes preset electronic cam curves or motion algorithms to plan the motor's position, speed, and torque trajectory in real time with microsecond-level precision. Simultaneously, the driver acquires the actual rotor position and speed signals of the motor's resolver in real time via the F10 interface and performs a high-frequency comparison with the planned trajectory.
It utilizes PID algorithms and vector transformations (such as Park and Clark transformations) to accurately calculate the required three-phase AC control quantities. Finally, it controls the IGBT power transistors to perform high-frequency PWM chopping, outputting a variable frequency and voltage current to precisely drive the servo motor.
In multi-axis linkage mode, it also utilizes the HEDA bus (M11 interface) to synchronize the position spindle signals (actual spindle or virtual spindle) between multiple drives at extremely high speed, so that the movement of the slave axis motor is closely matched with the movement of the spindle, as if there were a mechanical rigid connection between them.
