ETEL EA-P2M-300-4/7.5A-0100-01 Overview
ETEL EA-P2M-300-4/7.5A-0100-01 Overview
The ETEL EA-P2M-300-4/7.5A-0100-01 is a high-performance, dual-axis digital position controller belonging to the renowned AccurET Modular 300 series developed by ETEL S.A. in Switzerland. Engineered to satisfy the most demanding motion control requirements in semiconductor manufacturing, electronic assembly, and ultra-precision machine stages, this drive concurrently commands two distinct motion axes from a single compact enclosure.
The controller combines high-speed digital signal processing, an ultra-fast control loop sampling rate, and a versatile encoder interface to handle advanced motion trajectories with sub-micron positioning accuracy. It provides native real-time fieldbus communications alongside specialized hardware features designed to maximize system throughput and optimize industrial automated networks.
Technical Parameter List
The hardware architecture delivers dense dual-axis processing and variable current output profiles:
| Parameter Category | Specification Details |
| Brand / Manufacturer | ETEL S.A. (Môtiers, Switzerland) |
| Model Designation | EA-P2M-300-4/7.5A-0100-01 |
| Product Series | AccurET Modular 300 |
| Number of Regulated Axes | Dual-Axis (2 Axes controlled independently) |
| Main DC Power Input Range | $48\text{ VDC}\text{ to }340\text{ VDC}$ (Max input current: $8\text{ A}$) |
| Continuous Current Rating | $4\text{ A}$ Continuous per axis (at $10\text{ kHz}$ PWM) |
| Peak / Overload Current | $7.5\text{ A}$ Maximum per axis |
| PWM Configuration Frequency | $10\text{ kHz}$ or $20\text{ kHz}$ (Software configurable) |
| Control Loop Sampling Rates | Current Loop: $50\text{ }\mu\text{s}$ | Position Loop: $$50\text{ }\mu\text{s$ |
| Motion Management Cycle | $500\text{ }\mu\text{s}$ standard cycle timing |
| Primary Communication Bus | EtherCAT (CoE: CANopen over EtherCAT, CiA-402 Profile) |
| Auxiliary Ports | USB 2.0 (Commissioning/Setup), RS485 interface |
| Physical Dimensions | Approx. $150\text{ mm} \times 100\text{ mm} \times 50\text{ mm}$ ($L \times W \times H$) |
| Net Structural Weight | $1.4\text{ kg}$ ($3.09\text{ lb}$) |
Product Features & Core Advantages
High-Density Dual-Axis Synchronization: By driving two independent axes with a single module, the controller reduces required panel space, simplifies interconnect wiring, and provides phase-synchronized coordination between complex cross-axes.
Ultra-Fast Control Real-Time Performance: Operating with a $50\text{ }\mu\text{s}$ update interval for both the current and position loops yields high dynamic stiffness and excellent response times. It is paired with an ultra-fast digital output trigger latency of less than $20\text{ ns}$.
Universal Feedback Capabilities: The controller natively decodes diverse high-resolution feedback styles, including Heidenhain EnDat 2.1/2.2. Digital TTL, and Analog $1\text{ V}_{pp}$ differential signals at frequencies up to $10\text{ MHz}$.
Embedded Mathematical Mitigation: Supports embedded algorithms including Trapezoidal, S-curve, and custom mathematical trajectory generation. It features integrated cogging force and friction compensation maps to eliminate physical structural errors.
Model Classification
The AccurET platform divides into distinct power boundaries and hardware focus options:
EA-P2M-300-4/7.5A-0100-01: Standard multi-axis modular drive utilizing a $300\text{ VDC}$ intermediate voltage ceiling with $4\text{ A}$ nominal outputs.
EA-P2M-048-2.5/5A-0100-01: Low-voltage variant restricted to $48\text{ VDC}$ logic/bus ceilings for downscaled power footprints.
EA-P2M-400-15/40A-0100-00: High-power modular expansion capable of up to $400\text{ VDC}$ supply inputs and $40\text{ A}$ maximum current delivery.
AccurET VHP Series: Very High Performance hardware derivatives with premium processing paths for specialized ultra-stabilized lithography and metrology applications.
Environmental Tolerance Conditions
To guarantee predictable processing loops in cleanroom and advanced automated facilities, the drive requires adherence to the following conditions:
Operating Thermal Window: $0^\circ\text{C}\text{ to }+50^\circ\text{C}$ continuous operation.
Storage Thermal Limits: $-20^\circ\text{C}\text{ to }+70^\circ\text{C}$ non-operational survival range.
Relative Atmospheric Humidity: Max 85% relative humidity level, strictly non-condensing, to avoid internal micro-arcing.
Structural Isolation: Designed for installation within IP54-rated industrial electrical cabinets to protect the open connector geometry from ambient industrial particulate.
Installation Method
Safety Discharge Delay: Disconnect the primary $340\text{ VDC}$ bus and the $24\text{ VDC}$ control logic supplies. Wait a minimum of 5 minutes for internal high-voltage storage capacitors to completely bleed down before touching terminal blocks.
Mechanical Orienting: Secure the drive assembly to a metallic backplane inside the control enclosure. Ensure vertical mounting orientation to facilitate optimal natural convective heat dissipation across the aluminum chassis fins.
Encoder Connection Protection: Connect high-resolution feedback cables directly to the encoder ports. Ensure all metal backshells are fully clamped and shielded back to the frame ground to avoid signal contamination.
Fieldbus Interconnection: Route Cat5e or Cat6 Ethernet lines to the EtherCAT IN port and loop down to downstream components from the EtherCAT OUT interface.
Operating Instructions
Initial Configuration Loop: Utilize the ETEL ComET software suite via the local USB 2.0 interface port to pull standard parameters, load specific motor curves, and download custom motion programming.
Firmware Baseline Maintenance: Ensure that the controller flash memory is kept unified with matching revision releases across the multi-axis fieldbus master PLC to maintain synchronized EtherCAT cyclic communication timing.
Diagnostic Interpretation: In the event of a system halt, check the built-in diagnostic fault logger via ComET. Sudden shutdowns typically stem from instantaneous overcurrent conditions, tracking error limit overruns, or localized motor overtemperature conditions.