1 von 1

Honeywell 10201/2/1 Fail-safe Digital Output Module

Honeywell 10201/2/1 Fail-safe Digital Output Module

Nur noch 5 Artikel auf Lager verfügbar
  • Hersteller: Honeywell

  • Produkt-Nr.: 10201/2/1

  • Herkunftsland:Vereinigte Staaten

  • Produkttyp: Fail-safe Digital Output Modules

  • Zahlung: T/T, Western Union

  • Gewicht: 150g

  • Abmessungen: 3 cm x 20 cm x 15 cm

  • Versandhafen: Xiamen

  • Garantie: 12 Monate

Menge
Vollständige Details anzeigen

Description

Engineered for high-integrity safety instrumented systems, the Honeywell 10201/2/1 functions as an eight-channel fail-safe digital output module designed to drive resistive and inductive loads up to 13 W. Operating under the 11501 model architecture, this module provides 24 Vdc solid-state source outputs with integral short-circuit protection. To ensure flawless operation with inductive loads like solenoids, each of the eight channels features an integrated suppression diode. The module undergoes exhaustive automated testing diagnostics—including tests for de-energization capability, group de-energization via secondary means, output crosstalk, and diode performance—making it fully compliant with stringent fail-safe standards.

Features

  • 8 Fail-Safe Channels: Provides 24 Vdc solid-state, short-circuit-proof source outputs.
  • Integrated Suppression Diodes: Built-in protective diodes on each channel handle inductive back-EMF without external components.
  • Comprehensive Safety Testing: Continuous background diagnostics verify output de-energization, secondary group isolation, crosstalk, and diode integrity.
  • Physical Key Coding: Features dual mechanical code holes (A9, C9) matching rack pins to prevent accidental insertion of incorrect module types.
  • Low Signal Degradation: Limits voltage drop to less than 2.0 Vdc at 500 mA, with minimal off-state leakage current under 0.1 mA.

Applications

  • Emergency Shutdown (ESD) Systems
  • Burner Management Systems (BMS)
  • Fire and Gas (F&G) Detection Networks
  • High-Integrity Pressure Protection Systems (HIPPS)

Technical Specifications

Parameter Specification Value
Manufacturer Honeywell
Model Number / Article Number 10201/2/1
Model Type 11501
Number of Output Channels 8
Output Voltage (Nominal) 24 Vdc (solid-state source)
Maximum Current per Channel 550 mA
Maximum Lamp Load 120 mA (2.9 W)
Maximum Load Capacitance 1 uF
Voltage Drop < 2.0 Vdc at 500 mA
Off-State Current Leakage < 0.1 mA
Watchdog (WDG) Input Current 8 mA
Internal Power Consumption 5 Vdc at 25 mA / 24 Vdc at 25 mA
External Power Consumption 24 Vdc at 70 mA (excluding output load)
Space Requirements 4 TE, 3 HE (4 HP, 3U)
Module Coding Holes A9, C9
Rack Coding Pins Large pins A9, C9
Required Software Version Version 3.00 or higher
Certifications and Approvals CE, TUV, UL
Dimensions (H x W x D) 3 cm x 20 cm x 15 cm (1" x 8" x 6")
Net Weight 0.15 kg
Shipping Weight (Calculated) 2.00 kg

Empirical Engineering Insights

Alternative Models & Compatibility

The 10201/2/1 module requires safety runtime software version 3.00 or higher. For facilities migrating from legacy FSC architectures, ensure the host backplane's mechanical indexing matches the A9 and C9 physical key configuration. Failure to verify physical coding can damage backplane connector pins during blind insertion.

Application Pitfalls & Engineering Notes

While rated for a maximum load capacitance of 1 uF, highly distributed field cable runs can approach this threshold. Exceeding 1 uF can lead to transient inrush currents that the solid-state switch registers as an overcurrent fault, triggering a diagnostic shutdown. Always verify the lumped capacitance of your field cabling in critical ESD loops.

Commissioning & Wiring Tips

Ensure that the 24 Vdc external power supply driving the output channels is clean and isolated. Inductive suppression is handled internally, but running field cables parallel to high-voltage AC lines without proper shielding can couple noise into the watchdog circuit, resulting in diagnostic faults. Ground the cable shields at the cabinet entry point only.

Installation Guidelines

CRITICAL WARNING

Before installing or extracting this module, fully de-energize the rack and bleed any residual system charges. Hot-swapping without executing loop-bypass protocols on active safety loops may result in unintended process shutdowns or false trip conditions.

1

Inspect the module backplane connection and verify that the coding holes at A9 and C9 are clean and free of obstruction.

2

Slide the module gently into the designated slot along the guide rails until the rear Eurocard connectors sit flush against the backplane.

3

Secure the module to the rack chassis using the integrated front panel screws to ensure solid ground continuity.

Loading product navigation…

What diagnostic checks does the 10201/2/1 module execute automatically?

The module performs continuous background diagnostics testing the ability of each output to de-energize, checking the secondary group de-energization path, monitoring for channel-to-channel crosstalk, and verifying the health of the internal inductive suppression diodes.

Does the 10201/2/1 module require external suppression diodes for solenoids?

No. Each of the eight output channels includes a built-in suppression diode. This integration eliminates the need for external clamp components when driving inductive loads like solenoids or relays.

What is the maximum output current and capacitive load per channel?

Each output channel supports a maximum current of 550 mA under nominal 24 Vdc conditions. The maximum allowable capacitive load per channel is 1 uF.

What is the mechanical key coding configuration for this card?

The module is physically keyed using coding holes at positions A9 and C9. These line up with large pins on the corresponding rack slots to prevent inserting the incorrect module type into a live slot.

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
Vereinigte Staaten

Kürzlich angesehene Produkte

Technisches Wissen

Elektrische Antriebe als Ersatz für Flüssigkeiten: Praktisches Tutorial

This article explains how integrated electric actuators, such as SMC’s e-Actuator series, are transforming industrial motion control by replacing traditional pneumatic and hydraulic systems. It...

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...