ABB SPIPT800 Transfer Module

The ABB SPIPT800, also cataloged as the SPIPT800 Communication Module, operates as a dedicated hardware component for high-velocity network packet bridging within Symphony Plus automation platforms. The communication module interfaces natively at the hardware tier to route and execute bidirectional data transfers between legacy INFI-Net loop architectures and plant-level PN800 automation networks.

Hardware Specifications

Industrial Control & Drives Backplane Infrastructure

• Profinet / EtherNet/IP Deterministic Networks Integration The transfer module maps deterministic block data across distinct protocol environments, processing synchronous variable states without introducing network loop jitter. While executing native INFI-Net to PN800 conversions, the module's processing layout allows transparent coexistence alongside upper-tier Profinet / EtherNet/IP deterministic networks running across shared plant control segments.
• I/O Density Scaling and Backplane Bus Velocity Compliance The physical layout of the 88.9 mm depth block optimizes structural module spacing inside local controller node clusters. By maintaining uncompromised backplane bus communication velocity during high-volume network bridging operations, the module ensures that redundant track synchronization does not limit the register execution timing of adjacent high-density I/O slots.

Frequently Asked Questions

Q: What physical hardware configuration is mandatory to achieve redundant tracking with the SPIPT800?

A: Redundant node operation requires two identical SPIPT800 modules mounted on the backplane interface, interconnected via a dedicated SPK800-RCL1 redundancy cable. This physical link allows the backup module to continuously track active internal processing states, ensuring a smooth transfer if the primary module experiences a fault.

Q: Does the SPIPT800 contain internal battery modules for memory retention during power cycles?

A: No, the module incorporates zero internal electrochemical battery units. All firmware parameters, network cross-reference mappings, and address allocation registers are stored in non-volatile solid-state flash memory components that survive total power loss without data degradation.