GE IS420ESWBH2A

Product Introduction: The GE IS420ESWBH2A is an unmanaged industrial Ethernet/IONet switch in the ESWB series, featuring sixteen 10/100Base-TX copper ports and two 100Base-FX multimode fiber ports with LC-type connectors. It is designed for Mark VIe and Mark VIeS safety control systems requiring high port density and dual fiber uplinks for redundant or extended-distance connectivity.

Category: SKU: GE IS420ESWBH2A

Description

GE IS420ESWBH2A

Technical Specifications:

  • Series: GE Mark VIe / Mark VIeS
  • Product Type: Unmanaged IONet/Industrial Ethernet Switch (ESWB series)
  • Copper Ports: 16 × 10/100Base-TX RJ45
  • Fiber Ports: 2 × 100Base-FX multimode, LC-type connectors
  • Standards: IEEE 802.3, 802.3u, 802.3x
  • Auto-Negotiation: 10/100 base copper, full/half duplex
  • FX Uplink: 100 Mbps multimode (two ports)
  • HP-MDIX: Auto-sensing
  • Buffer: Minimum 256 KB
  • MAC Addresses: 4K
  • Power Input: 24/28 V DC, redundant dual power input (diode OR’d)
  • Operating Temperature: -40 °C to +70 °C
  • Cooling: Convection (no fan)
  • Installation: DIN rail or panel mount
  • RJ45 Insertion Cycles: Up to 200
  • Weight: 2 pounds 5 ounces (approximately 1.05 kg)

Functional Features:

  • High port density (16 copper + 2 fiber) for large IONet networks with dual fiber redundancy
  • Two multimode fiber ports for redundant uplinks or extended-distance connections (up to 2 km)
  • Redundant dual power inputs (diode OR’d) for high availability
  • Soft-start inrush current limited to less than 200% of normal operating current
  • LED indicators for link, activity, duplex, and speed per port
  • Buffers multicast and broadcast packet streams with per-port buffering
  • Supports simplex, dual, and TMR controller redundant configurations

Application Scenarios:

  • Central IONet switching in Mark VIe control cabinets with numerous I/O packs
  • Gas and steam turbine control systems requiring redundant fiber uplinks to remote nodes
  • Power plant network infrastructure with dual-fiber redundant topologies
  • Industrial automation requiring high-density Ethernet switching with dual fiber extension

Performance Parameters:

  • Wire-speed forwarding on all 18 ports
  • Low switch latency for real-time IONet traffic
  • Robust buffering for multicast-heavy control networks
  • Industrial-grade reliability with redundant power and wide temperature range
  • Fiber ports support distances up to 2 km for multimode fiber

Material and Structural Characteristics:

  • Industrial-grade metal housing with convection cooling
  • Sixteen RJ45 ports and two LC fiber ports on the front panel
  • DIN-rail or panel-mount enclosure with seven panel-mount screw holes
  • RJ45 connectors rated for 200 insertion/removal cycles
  • Weight: approximately 1.05 kg

Working Principle: The switch forwards Ethernet packets between sixteen copper-connected IONet devices and two fiber-connected uplinks, buffering multicast and broadcast streams. It auto-negotiates speed and duplex on copper ports, supports two 100 Mbps multimode fiber uplinks for redundancy or extended distance, and uses HP-MDIX for copper cable orientation. Redundant 24/28 V DC power inputs ensure continuous operation during power supply failures. Installation Requirements:

  • Mount on DIN rail using clips (259B2451BVP1 for horizontal, 259B2451BVP4 for vertical) or panel-mount with seven screws
  • Connect 24/28 V DC to redundant power inputs
  • Wire copper ports using Cat 5e or better UTP cabling with RJ45 connectors
  • Connect fiber ports using multimode fiber with LC connectors
  • Ensure adequate ventilation for convection cooling
  • Observe maximum 200 insertion/removal cycles for RJ45 connectors

Usage Notes:

  • Use only LC-type connectors for the multimode fiber ports
  • Select ESWBH1A for one fiber port or ESWBH3A for no fiber ports based on network requirements
  • Monitor LED indicators for link status, activity, and power
  • Avoid applying torsional stress or cable-weight tension on fiber or copper connectors
  • Confirm power supply voltage and polarity before energizing
  • Replace with identical ESWB series models to maintain network configuration