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EP6228-0022 | BECKHOFF | Boîtier EtherCAT

EP6228-0022 | BECKHOFF | Boîtier EtherCAT

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  • Fabricant : BECKHOFF

  • N° de produit : EP6228-0022

  • Pays d'origine :Allemagne

  • Type de produit : Boîtier EtherCAT

  • Paiement : Virement bancaire, Western Union

  • Poids : 500g

  • Port d'expédition : Xiamen

  • Garantie : 12 mois

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Description

Designed to orchestrate decentralized field-level communication, the Beckhoff EP6228-0022 enables the seamless integration of up to eight IO-Link devices directly into high-speed EtherCAT networks. This IP67-rated module functions as an industrial-grade coupler, bypassing the requirement for protective control enclosures and streamlining on-machine cabling topologies. By combining the ultra-low latency of the EtherCAT protocol with the point-to-point flexibility of the IO-Link V1.1 (Class A) specification, it provides direct, bidirectionally transparent access to sensor and actuator parameterization, diagnostics, and process data.

The device features standard M12 connection ports with A-coding for secure signal integrity and utilizes M8 connections for both the high-performance EtherCAT bus line and local 24 V DC power distribution. With built-in support for Distributed Clocks, the module guarantees precise synchronization of downstream automation nodes, making it highly reliable for distributed sensing arrays, complex assembly machinery, and localized material handling platforms.

Key Features

  • Eight Independent IO-Link Channels: Supports concurrent connection of up to 8 IO-Link Class A devices with adjustable data transfer rates up to 230.4 kbaud.
  • Direct Field Mounting: IP65/66/67 physical housing protects internal electronics against moisture, dust, and washdown protocols without requiring a panel.
  • Distributed Clocks System: Fully integrated EtherCAT Distributed Clocks support ensures sub-microsecond synchronization precision across the fieldbus network.
  • Robust Electrical Isolation: Featuring 500 V galvanic isolation between the industrial bus system and the local sensor/actuator circuitry.
  • Daisy-Chain Power Routing: Structured with dedicated M8 power feed and downstream connections to simplify power distribution configurations.

Applications

  • Automotive Assembly Lines: Localized integration of smart pneumatic manifolds, laser distance sensors, and RFID readers.
  • Packaging and Bottling Plants: Direct on-frame mounting near rotary systems or conveyor lines requiring multi-port sensor connectivity under frequent washdown protocols.
  • Robotic Tool-End Tooling: Lightweight, shock-resistant master module deployment on dynamic articulation arms.
  • Intralogistics and Sorting Hubs: Control-closet-free configuration of sprawling sensor arrays across long-distance conveyor runs.

Technical Specifications

Parameter / Specification Value / Rating
Manufacturer Beckhoff Automation
Model Number EP6228-0022
Fieldbus Protocol EtherCAT
Bus Interfaces 2 x M8 socket, shielded, screw-type connection
IO-Link Specification Version 1.1, Class A
Number of IO-Link Ports 8
Supported Baud Rates 4.8 kbaud, 38.4 kbaud, 230.4 kbaud
Connection Method M12 x 1, 5-pin, A-coded
Nominal Operating Voltage 24 V DC (-15% / +20%)
IO-Link Sensor Supply (L+) 24 V DC, 1.4 A max per port (cumulative limit of 4.0 A across all 8 ports)
Current Consumption (from US) Typically 130 mA + sensor load
Power Feed Configuration Inflow: 1 x M8 male (4-pin); Downstream: 1 x M8 female (4-pin)
Distributed Clocks Support Yes
Electrical Isolation 500 V
Environmental Protection Rating IP65, IP66, IP67 (conforms to EN 60529)
Operating Temperature -25 to +60 degC
Storage Temperature -40 to +85 degC
Vibration/Shock Resistance Conforms to EN 60068-2-6 / EN 60068-2-27
EMC Immunity/Emission Conforms to EN 61000-6-2 / EN 61000-6-4
Net Module Weight Approximately 250 g
Shipping Weight (Calculated) 2.00 kg (with protective packaging)
Country of Origin Germany

Connections and Interfaces

Connection Point Connector Specification Functional Assignment
EtherCAT Input Port M8, 4-pin socket (Female) Incoming high-speed EtherCAT communication link
EtherCAT Output Port M8, 4-pin socket (Female) Downstream EtherCAT network extension
Channels 1 to 8 M12, 5-pin socket, A-coded (Female) IO-Link Class A interfaces / Standard Digital I/O channels
Power Input M8, 4-pin plug (Male) Primary 24 V DC supply feed (US / UP)
Power Downstream M8, 4-pin socket (Female) Loop-through power supply for subsequent EtherCAT Box nodes

Empirical Engineering Insights

Alternative Models & Compatibility

When migrating legacy architectures from early-generation IO-Link configurations (such as the standard EP6224 or older non-0022 modules), take note that the EP6228-0022 requires TwinCAT 3.1 Build 4022 or higher to fully unlock the complete diagnostic suite of IO-Link V1.1. Always ensure that the corresponding ESI (EtherCAT Slave Information) configuration XML matches the exact hardware revision displayed on the module label. Substituting older variants with the -0022 model may require an update to the ESI file in your TwinCAT System Manager to prevent cyclic data alignment mismatch faults.

Application Pitfalls & Engineering Notes

A common point of commissioning failure relates to power budgeting. While each individual IO-Link port on this module is physically capable of sourcing up to 1.4 A for the sensor supply (L+), the absolute aggregate current limit for all eight ports combined is strictly capped at 4.0 A. If you intend to operate highly demanding actuators, such as smart pneumatic valves or high-current solenoids, compute your aggregate current requirements beforehand. Exceeding the 4.0 A limit will trigger localized overcurrent protection routines, causing random port restarts and intermittent fieldbus communication drops.

Commissioning & Wiring Tips

To protect against EMI coupled through heavy industrial machinery (such as variable frequency drives or servo systems), use double-shielded STP (Shielded Twisted Pair) Cat5e cabling with direct 360-degree metallic shield clamping at the M8 bus connectors. Ground loops can be avoided by verifying that the structural machine frame mounting bracket matches the grounding potential of the system's central functional earth. Under noisy environments, utilize the dedicated IO-Link integration tools inside TwinCAT to monitor the frames-per-second parameter, ensuring error-free operational transmission.

Installation Guidelines

CRITICAL WARNING: SAFETY FIRST

Isolate and lock out all upstream electrical power supplies before performing any physical mounting or cabling modifications. Grounding the aluminum backing plate of the EtherCAT Box directly to structural machine ground is mandatory to avoid parasitic electrostatic discharges and unexpected control loop anomalies.

1
Position the module against a flat, vibration-resistant structural machine element. Secure the unit using M3 screws threaded directly into the structural mounting holes on the top and bottom flanges. Do not over-torque the mounting screws.
2
Route the incoming 24 V DC power supply lines to the 4-pin male M8 feed plug. Verify correct line polarity to avoid damage to internal diagnostic systems. Ensure that the downstream female M8 port is either capped with an IP67 protective plug or securely routed to the next node.
3
Connect the incoming EtherCAT run to the top M8 communication port and output downstream runs through the bottom port, ensuring that screw collars are hand-tightened to preserve the IP67 ingress seal.
4
Attach IO-Link actuators or sensor cables to the individual M12 ports. Seal any unused M12 and M8 ports with genuine industrial protection caps to ensure complete environmental integrity against ambient coolant or moisture spray.

What is the absolute maximum current rating per IO-Link channel on the EP6228-0022?

Each individual Class A port can supply up to 1.4 A DC for local sensor operation (L+). However, the cumulative power limit for all 8 ports on the module is capped at 4.0 A. Overloading this limit triggers standard overcurrent protection.

Does this module support both Class A and Class B IO-Link connections?

The module features standard Class A ports (5-pin, A-coded M12). It does not natively provide auxiliary power lines on Pins 2 and 5 for high-draw Class B actuators. For those, external auxiliary power injection blocks are required.

What software environment is required to configure the EP6228-0022?

Configuration requires Beckhoff TwinCAT 3.1 (Build 4022 or newer) or a compliant EtherCAT master configured with the correct ESI (XML) device description file for this exact model.

Can standard digital sensors be wired directly into the IO-Link ports of the EP6228-0022?

Yes, each port can be software-configured to act as a standard digital input (DI) or digital output (DO) channel if an active IO-Link device is not connected.

Expédition express mondiale

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Retours et garantie

  • Garantie de 30 jours : Retours acceptés pour les produits en stock dans leur emballage d'origine scellé en usine.
  • Garantie de 12 mois : Chaque composant industriel est couvert par notre garantie technique professionnelle.

Les commandes sont traitées et livrées du lundi au vendredi (hors jours fériés).


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TECHNICAL SPECIFICATIONS

Country of origin
Allemagne

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