D136E001-001 Moog Servo Controller
MOOG D136E001-001 is a specialized Programmable Processor Module belonging to the MSC I (Moog Servo Controller) family. Engineered for high-demand industrial environments, this module serves as a robust digital controller for both hydraulic and electric motion systems.
It is designed to handle complex closed-loop control tasks with high precision, specifically optimized for applications requiring autonomous position, velocity, and force regulation.
The “E” designation in the model number typically signifies an Enhanced or Extended version,
often featuring specialized firmware or hardware revisions to support advanced fieldbus communication or ruggedized performance profiles.
Technical Parameter Table
| Parameter | Specification |
| Processor Type | 32-bit PowerPC RISC with Floating Point Unit (FPU) |
| Memory | 4 MB RAM / 4 MB Flash EEPROM (10-year retention) |
| Supply Voltage | 24 V DC (Standard range: 18–36 V DC) |
| Current Consumption | 0.5 A (Idling) to 2 A (Full Load) |
| Analog Inputs | 8 Channels (16-bit, configurable ±10V, ±10mA, or 4–20mA) |
| Analog Outputs | 2 Channels (16-bit, ±10V / ±10mA / ±50mA / 4–20mA) |
| Digital I/O | 8 Channels (Individually configurable as Input or Output) |
| Interfaces | Ethernet (10/100 Mbps), Dual CAN, Profibus-DP (Optional) |
| Sensor Interfaces | 2 (Supports SSI, Incremental Encoder, or LVDT/Pot) |
| Cycle Time | Internal control loops down to 400 µs |
| Protection Class | IP20 (DIN Rail Mounted) |
Related Models
MOOG D136-001-007: Standard MSC I with Profibus-DP slave interface.
MOOG D136-001-008: Standard MSC I without Profibus, focused on CAN communication.
MOOG D138 Series: Next-generation MSC II controllers with increased processing power and memory.
MOOG G123-817: Associated power and signal conditioning modules often used in the same rack.
Application Cases
Test & Simulation: Real-time control of multi-axis test rigs for automotive and aerospace structural testing.
Plastic Machinery: Precise control of parison thickness in blow molding or injection speed in molding machines.
Metal Processing: High-speed synchronization of hydraulic cylinders in heavy-duty forging presses.
Power Generation: Accurate positioning of gas and steam turbine guide vanes and fuel valves.
Product Advantages and Features
Programmable Flexibility: Uses MACS (Moog Axis Control Software) based on IEC 61131-3. allowing for fully customized control architectures.
High-Speed Execution: With cycle times as low as 400 µs, it can manage the high-frequency response requirements of high-performance servo valves.
Precision I/O: 16-bit analog resolution ensures smooth control even at very low speeds or small pressure increments.
Integrated Safety: Features a built-in watchdog output (“Outputs Enabled”) that fails to a high-impedance state during faults.
E-Bus Expansion: Includes a side-mounted connector to expand system I/O by adding up to 7 more M3000 series modules.
Installation and Maintenance
D136
Installation
Mounting: Install on a standard 35mm DIN rail. Ensure vertical orientation for optimal heat dissipation.
Wiring: Use shielded cables for all analog and sensor connections. Connect shields at both ends to a common chassis ground to prevent EMI.
Power: Connect to a stable 24V DC SELV-compliant power source. Avoid sharing power lines with high-inductive loads like large solenoids.
Maintenance
Status Monitoring: Use the front-panel LEDs (Run, Stop, Error) for immediate diagnostics.
Data Integrity: The unit utilizes Flash EEPROM, so no battery replacement is required for program retention.
Environment: Keep the operating environment between +5°C and +55°C. Periodically check for dust buildup around the ventilation slots.
Unique Product Description
The MOOG D136E001-001 is more than a simple PLC; it is a dedicated “Motion Engine.”
By combining the processing speed of a 32-bit PowerPC with Moog’s specialized motion libraries, this module eliminates the latency typically found in general-purpose automation hardware.
It is the ideal choice for engineers who need to bridge the gap between high-level factory networks and the high-dynamic, non-linear world of hydraulic servo control.