GE Fanuc PACSystems RX3i Accessory Component IC695ACC302

Product Overview

The GE Fanuc IC695ACC302, also cataloged as the IC695ACC302 Auxiliary Smart Auxiliary Battery Module, operates as a dedicated hardware component for volatile memory retention parameter preservation within PACSystems RX3i controller assemblies.

Hardware Specifications

Deterministic Memory Retention and Firmware Lifecycle Control

The hardware interface links directly to the processing assembly to sustain the localized database states during external electrical source termination. The connection does not influence backplane bus communication velocity parameters, but interfaces directly with low-level internal power distribution traces to balance current draw characteristics. This auxiliary cell unit matches systemic I/O density scaling profiles by mounting inside standard expansion slots or predefined peripheral paths without generating local thermal deviations. Correct deployment operates independently of specific firmware flash compatibility benchmarks, maintaining active bit state registry continuity across the static memory chips during extended offline cycles.

Frequently Asked Questions

Q: Can the IC695ACC302 hardware assembly be hot-swapped under live backplane power?

A: Yes. The unit functions outside the active parallel logic line matrix. Replacing the module assembly while the rack power supply module is energized does not interrupt operational CPU instruction sequencing or cause backplane data bus faults.

Q: How does the processing unit identify a depleted battery condition within this module?

A: The module passes an analog voltage reference signal to the host CPU frame over a dedicated input link. When the cell potential decays below a set internal threshold, the controller triggers a precise diagnostic status flag in the system register table to signal required maintenance.

Field Installation Guidelines

1. Locate the assigned mounting slot adjacent to the PACSystems RX3i CPU module on the universal baseplate infrastructure.
2. Direct the battery module straight into the slot track paths, seating the card body firmly until the retention clips click onto the chassis frame.
3. Plug the key-indexed internal power harness connector securely into the corresponding receptacle on the controller circuit board to establish the DC delivery path.
4. Separate the physical module housing and its low-voltage connection lead wires from internal enclosure AC power distribution wires by at least 10 cm to eliminate transient electrostatic coupling.