1 von 1

Beckhoff EP2028-0001 EtherCAT Box 8-channel Digital Output Module

Beckhoff EP2028-0001 EtherCAT Box 8-channel Digital Output Module

Nur noch 10 Artikel auf Lager verfügbar
  • Hersteller: BECKHOFF

  • Produkt-Nr.: EP2028-0001

  • Herkunftsland:Deutschland

  • Produkttyp: EtherCAT I/O Modules

  • Zahlung: T/T, Western Union

  • Gewicht: 500g

  • Versandhafen: Xiamen

  • Garantie: 12 Monate

Menge
Vollständige Details anzeigen

Description

Decentralized signal routing in demanding physical environments is optimized with the Beckhoff EP2028-0001 EtherCAT Box, an IP67-rated digital output module designed for mounting directly on machinery without control cabinets. This robust field device manages 8 digital outputs operating at 24 V DC, with each channel engineered to supply up to 2 A of load current. Featuring high-speed EtherCAT system integration, industrial M8 connection interfaces, and comprehensive electrical isolation, it delivers reliable output control for ohmic, inductive, and lamp loads under aggressive physical stress.

Features

  • High Current Output Capacity: Supplies up to 2 A per channel, allowing direct control of heavy actuator loads.
  • Individual Short-Circuit Protection: Each channel is isolated and short-circuit proof, preventing localized faults from disrupting the entire system.
  • Industrial-Grade Sealing: Achieves IP65, IP66, and IP67 protection ratings, safeguarding inner electronics from moisture and particulate ingress.
  • Standardized M8 Connectivity: Utilizes robust M8 interfaces for both high-speed EtherCAT communications and system/peripheral power.
  • Hazardous Location Certification: ATEX Zone 2 approval permits deployment within explosive atmospheres.

Applications

  • Pneumatic valve terminal control and decentralized manifold switching.
  • Direct machine-mount actuator control in automated material handling systems.
  • Automated packaging and washdown environments requiring localized, cabinet-free I/O.
  • Process plants and chemical environments utilizing hazardous area (ATEX) regulations.

Technical Specifications

Specification Parameter Technical Value
Manufacturer Beckhoff
Model Number EP2028-0001
Series EtherCAT Box (EP)
Fieldbus Protocol EtherCAT
Number of Outputs 8 digital outputs
Nominal Output Voltage 24 V DC (-15 percent / +20 percent)
Max. Output Current 2 A per channel (individually short-circuit proof); Sum max. 4 A
Short-Circuit Current Limit Typically 15 A
Switching Delay TON: 200 us (typical); TOFF: 200 us (typical)
System Power Consumption (US) 120 mA from US
Auxiliary Power Current (UP) 20 mA typical + load current
Electrical Isolation 500 V (system/auxiliary power to control logic)
Operating Temperature Range -25 to +60 degC
Storage Temperature Range -40 to +85 degC
Protection Rating IP65 / IP66 / IP67 (conforms to EN 60529)
Ex Marking II 3 G Ex nA IIC T4 Gc
Approvals CE, UL, ATEX
Unit Weight Approx. 165 g

Connections and Interfaces

Interface Type Connector Style Assignment Function
EtherCAT Bus Input/Output 2 x M8 socket, shielded, screw type Inbound and downstream EtherCAT network routing
Digital Outputs (0 to 7) 8 x M8 socket, 3-pin, A-coded Pin 1: +24 V DC auxiliary out; Pin 3: GND; Pin 4: Output signal
Power Feed 1 x M8 male socket, 4-pin 24 V DC system power (US) and peripheral power (UP)
Downstream Power 1 x M8 female socket, 4-pin Power distribution loop to subsequent EtherCAT Box units

Empirical Engineering Insights

Alternative Models & Compatibility

When standardizing field wiring layouts, contrast the EP2028-0001 (utilizing compact M8 connectors) with the EP2028-0002 (designed with dual M12 connection ports). Direct interchangeability is straightforward via the EtherCAT configuration files (ESI), although physical wiring adaptations are required if substituting M8 connectors for M12 variants. Ensure your TwinCAT system manager configurations are aligned with the exact hardware suffix to maintain cyclic communication timing.

Application Pitfalls & Engineering Notes

A primary engineering constraint of this module is the 4 A aggregate current limit for all channels combined. While individual outputs can switch up to 2 A, simultaneous high-current operation across multiple channels must not exceed 4 A. Exceeding this collective thermal limit will trip system diagnostic flags and may trigger short-circuit protective mechanisms. Engineers must calculate duty cycles and load profiles during design to avoid nuisance thermal shut-offs in high-load actuator applications.

Commissioning & Wiring Tips

For industrial environments with heavy electromagnetic interference (EMI), ensure the metal mounting brackets of the EtherCAT Box are directly grounded to the machine frame. Use shielded M8 network cables and torque connections to the OEM specification (0.4 Nm) to guarantee IP67 sealing. All unused output or power ports must be fitted with screw-on protective IP67 plastic caps to prevent moisture condensation or particulate contamination from compromising the internal signal paths.

Installation Guidelines

CRITICAL WARNING

Isolate all electrical power sources (both control system US power and peripheral UP power) before mounting, routing cables, or plugging/unplugging connections on the module. Live insertions can damage sensitive solid-state switching elements and compromise communication bus performance.

1
Position and secure the EtherCAT box onto a flat, vibration-resistant machine frame using M3 or M4 screws. Avoid applying excessive torque to the mounting tabs.
2
Connect the incoming EtherCAT bus cable to the top-left M8 socket. Loop downstream EtherCAT segments via the adjacent output socket.
3
Terminate the 4-pin M8 auxiliary power feed (US/UP). Verify that polarity and voltage drops across long cable runs remain within specified operational limits.
4
Secure all M8 actuator leads onto ports 0 through 7. Hand-tighten all knurled locking nuts to secure the IP67-rated seals against external environment infiltration.
Loading product navigation…

What is the collective current limit for the EP2028-0001 module?

The total cumulative current limit (sum of all channels) is 4 A. While individual channels can switch up to 2 A, you cannot run all 8 channels at their individual maximum outputs simultaneously.

Does the EP2028-0001 support Distributed Clocks (DC)?

No, this specific model does not support Distributed Clocks. Cyclic communication timing relies on the standard EtherCAT system cycle.

How does the short-circuit protection behave when tripped?

The output channels are individually short-circuit proof. When a fault is detected on a channel, it switches off independently, with a typical peak short-circuit current limit of 15 A before the hardware safeguard trips.

What is the difference between US and UP power supply pins?

US supplies the control electronics logic and internal system operations of the box, whereas UP supplies the peripheral actuator power required by the outputs. These circuits are electrically isolated up to 500 V.

Globaler Expressversand

  • Standardlieferung: 4-6 Werktage via DHL, FedEx und UPS.
  • Expressversand: Versand am selben Tag für vorrätige Bestellungen, die vor 14:00 Uhr (GMT+8) aufgegeben werden.
  • Weltweite Abdeckung: Wir bedienen über 150 Länder, einschließlich schneller Lieferung nach Saudi-Arabien und in die VAE.

Rückgaben & Garantie

  • 30-Tage-Garantie: Rückgaben werden für vorrätige Produkte in originaler, werkversiegelter Verpackung akzeptiert.
  • 12-Monats-Garantie: Jede Industriekomponente ist durch unsere professionelle technische Garantie abgesichert.

Bestellungen werden Montag bis Freitag bearbeitet und geliefert (außer an Feiertagen).


Für vollständige Anspruchsvoraussetzungen, Wiedereinlagerungsgebühren und internationale Rückgabedetails, sehen Sie bitte unsere offizielle Seite ein Rückerstattungs- & Rückgabebedingungen .

TECHNICAL SPECIFICATIONS

Country of origin
Deutschland

Kürzlich angesehene Produkte

Technisches Wissen

Elektrische Antriebe zur Ablösung von Fluidkraftsystemen: Ein praktischer Leitfaden für die industrielle Automatisierung

Dieser Artikel erklärt, wie integrierte elektrische Antriebe, wie die e-Actuator-Serie von SMC, die industrielle Bewegungssteuerung revolutionieren, indem sie herkömmliche pneumatische und...

Mathematische Operationen mit OpenPLC für industrielle Automatisierungsanwendungen

Dieser Artikel erklärt, wie SPS-Systeme grundlegende mathematische Operationen wie Addition, Subtraktion, Multiplikation, Division, Modulo und Exponentiation in der industriellen Automatisierung...

Fortgeschrittene Boolesche Logik mit FBD-SPS-Programmierung: Praktische industrielle Anwendungen über die Grundlogik hinaus

Der Artikel erklärt mehrere erweiterte Boolesche Logikfunktionen, die in der SPS-Programmierung über die grundlegenden AND-, OR- und NOT-Operationen hinaus verwendet werden. Er behandelt, wie...

Boolesche Logik in der SPS-Programmierung: Verständnis von FBD-Logikgattern

Boolesche Logik ist die Grundlage jedes SPS-Programms. Von einfachen Maschinensteuerungen bis hin zu komplexen industriellen Automatisierungssystemen bestimmen Logikgatter, wie Steuerungen auf sich...

Umfassender Leitfaden zu industriellen Firewalls und OT-Netzwerksegmentierung

Industrielle Firewalls spielen eine entscheidende Rolle in der OT-Cybersicherheit, indem sie SPS-, DCS- und SCADA-Netzwerke durch Segmentierung, Ein- und Ausgangskontrolle sowie IDS/IPS-Integration...

Leitfaden für Roboter-Greifer: Von der schonenden Handhabung bis zur Schwerlastautomatisierung

Moderne robotische Greifer entwickeln sich über traditionelle mechanische Greifbacken hinaus. Von gecko-inspirierten Haftsystemen und weichen, lebensmittelechten Greifern bis hin zu KI-gestützten...