Woodward 5464-337 Module – 5464 Series

Technical Dossier

Product Details And Specifications

Woodward 5464 Series Technical Notes

The Woodward 5464 series represents a core hardware platform within Woodward's MicroNet and NetCon distributed control architecture. These modules are deployed extensively across global heavy industry sectors including petrochemical refineries, combined-cycle power plants, nuclear auxiliary systems, offshore platforms, and LNG processing facilities. The 5464 backplane-based modular design allows for scalable I/O expansion within a single rack, enabling plant engineers to configure turbine control, compressor management, and generator protection systems with deterministic scan-cycle performance. Installed base across thousands of critical rotating machinery applications makes the 5464 series one of the most referenced spare parts families in the industrial aftermarket.

The Evolution of 5464 Architecture

The 5464 hardware lineage traces to Woodward's transition from discrete relay-based governor panels to fully digital, microprocessor-driven control platforms in the late 1980s and early 1990s. Early 5464 variants operated under the NetCon 5000 framework, using proprietary serial backplane communication at fixed baud rates with limited hot-swap capability. As the platform matured through the 1990s and into the 2000s, Woodward introduced enhanced CPU modules with expanded memory maps, faster analog conversion rates (from 12-bit to 16-bit resolution on select AI cards), and improved EMI shielding for high-voltage generator environments.

5464 Full Catalog & Functionalities (SKU List)

Analog Input / Output Modules

• 5464-337: 8-channel analog input module, 4–20 mA / 0–10 V configurable, 16-bit resolution, backplane-mounted
• 5464-338: 16-channel analog input module, differential input configuration, high-density I/O expansion card
• 5464-339: 8-channel analog output module, 4–20 mA current loop output, isolated per channel
• 5464-340: 4-channel high-accuracy analog output, ±0.1% full-scale accuracy, for valve positioner control
• 5464-341: Thermocouple input module, 8-channel, Type J/K/T/E selectable, cold junction compensated
• 5464-342: RTD input module, 8-channel, PT100/PT1000 compatible, 3-wire configuration

Digital Input / Output Modules

• 5464-350: 32-channel digital input module, 24 VDC sourcing, optically isolated, status LED per channel
• 5464-351: 32-channel digital output module, 24 VDC sinking, 0.5 A per channel, short-circuit protected
• 5464-352: 16-channel relay output module, SPDT contacts, 5 A @ 250 VAC, for alarm and trip circuits
• 5464-353: 16-channel digital input module, 120 VAC compatible, for field device status monitoring
• 5464-354: High-speed digital input module, 8-channel, pulse counting up to 100 kHz, for speed sensing

CPU / Controller Modules

• 5464-300: Main CPU module, 32-bit processor, 4 MB application memory, real-time OS, primary rack controller
• 5464-301: Redundant CPU module, hot-standby configuration, bumpless transfer on fault detection
• 5464-302: Enhanced CPU module, expanded I/O map, Ethernet port, ToolKit-compatible firmware

Communication Adapters

• 5464-370: Modbus RTU communication module, RS-485 interface, master/slave configurable, 19.2 kbps max
• 5464-371: DeviceNet adapter module, CAN-based fieldbus, 125/250/500 kbps, for distributed I/O networks
• 5464-372: Ethernet TCP/IP communication module, 10/100 Mbps, SCADA integration via Modbus TCP

Power Supply Modules

• 5464-320: 24 VDC rack power supply, 10 A output, wide-range AC input 85–264 VAC, active PFC
• 5464-321: Redundant power supply module, load-sharing configuration, N+1 redundancy for critical applications

Quality Control for the 5464 Range

The 5464 series uses a proprietary backplane bus protocol that requires module-level functional testing rather than simple continuity checks. DriveKNMS applies a structured test protocol for each 5464 module type: analog modules are verified against calibrated reference signals across the full input/output range; digital modules are cycled through all channel states under load; CPU modules are booted to firmware initialization and memory self-test completion; communication modules are tested for correct frame transmission and error-free reception on live bus segments.