GE ST-2328 Digital Output Module

Configured for distributed binary actuation and solid-state load switching within industrial automation platforms, the GE ST-2328 (ST-2328 Digital Output Module) provides direct physical/electrical execution. It routes internal control commands straight to external peripheral loops natively at the hardware tier to maintain real-time status transitions parallel to master processing bus execution cycles.

Hardware Specifications

Industrial Control & Drive Processing Architecture

• EtherNet/IP Deterministic Networks and Bus Integration: The ST-2328 syncs with master controllers via the high-speed Ethernet-based RSTi slice bus. Actuation bits transferred across the network execute terminal state transitions within designated millisecond system tasks, reducing command processing delay.
• I/O Density Scaling and Sourcing Output Parameters: The module houses 8 discrete source channels in a 0.10 lbs slice frame. It supplies up to 0.5 A per point at 24 VDC, allowing direct mechanical-tier interaction with industrial relays, contactor coils, and pilot indicators without mid-tier signal amplification.
• Firmware Flash Compatibility and Internal Protection: Internal logic separation protects the core processing rail against field-side faults. The solid-state driver transistors maintain switching states during standard firmware flash procedures, shielding system data maps from ambient electrical noise.

Frequently Asked Questions

Q: What specific hardware behaviors manifest if a 24 VDC sourcing loop experiences a dead short circuit at the ST-2328 terminal interface?

A: The module relies on its internal thermal and overcurrent protection components to throttle the fault current. The channel isolates the shorted loop to protect the internal slice bus from thermal damage, while the remaining 7 digital outputs maintain active execution states.

Q: Can this 0.10 lbs digital output slice module be extracted from the rail assembly while the backplane power is active?

A: No. Standard RSTi slice bus modules do not support live hot-swapping. Pulling the module while power is applied can create transient electrical noise across the internal slide links, disrupting data frame sequences to downstream nodes and inducing a communication fault.