GE Fanuc IC693ACC341 Redundant Baseplate | New & Original Stock
GE Fanuc IC693ACC341 Redundant Baseplate | New & Original Stock
GE Fanuc IC693ACC341 Redundant Baseplate | New & Original Stock
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GE Fanuc IC693ACC341 Redundant Baseplate | New & Original Stock

  • Manufacturer: GE Fanuc

  • Part Number: IC693ACC341

  • Condition:New with Original Package

  • Product Type: Power Supply Modules

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE Fanuc IC693ACC341 Series 90-30 Redundant Power Supply Baseplate

The GE Fanuc IC693ACC341 serves as the primary IC693ACC341 Redundant PSU Baseplate utilized to execute automatic power arbitration across Series 90-30 PLC platforms. The hardware acts as a hot-standby power interface module, accommodating two standard IC693 power supply units simultaneously to preserve internal backplane logic and field-side distribution voltages during single-source power interruptions.

Hardware Specifications

Parameter Specification
Model IC693ACC341
Brand GE Fanuc / Emerson
Origin USA
Weight 0.91 kg (2.00 lbs)
Dimensions 150 mm x 45 mm x 35 mm
Operating Temp -20 to +60 deg C
Power Consumption Passive distribution / load dependent
Product Line Series 90-30
Redundancy Support 2 IC693 power supply units (PS1/PS2)
Switching Mode Hot-standby automatic transition
Changeover Delay 5 s revert delay
Required Adapter IC693ACC350 Adapter Module
Dedicated Cables 0.6 m adapter cable included
User Output Voltage 24 VDC isolated
Max User Current 0.83 A maximum
Relay Outputs 4 Normally-Open (NO) dry contacts
Relay Rating 0.5 A at 12/24 VDC or 120/240 VAC
Status Indicators 4 redundancy status LEDs, 3 operational LEDs
Structural Material Flame-retardant PC, UL 94 V-0

Backplane Bus Communication Velocity and Deterministic Networks

The baseplate relies on an integrated IC693ACC350 adapter module to coordinate automatic hardware arbitration parameters directly with the active Series 90-30 CPU rack via a dual-connector expansion port layout. This physical communication architecture allows the power arbitration logic to operate independently of standard PLC application scans. Internal transient voltage suppressors clamping at 40 V dampen inductive high-frequency noise spikes, preventing incoming line-side power switches from inducing communication frame errors or logic velocity reductions across the localized I/O backplane bus structure.

Frequently Asked Questions

Q: How does the power arbitration circuit behave when a faulty power supply unit is replaced or restored?

A: The IC693ACC341 functions in an automatic hot-standby switching configuration. When a failed power supply unit is restored to a nominal state, the arbitration logic implements a fixed 5-second revert delay before transferring the primary load back to ensure voltage stabilization.

Q: Can the baseplate be extracted or serviced while the Series 90-30 system is executing active logic?

A: No, online hot-swap of the overall IC693ACC341 baseplate is not supported. All incoming AC/DC power sources must be completely isolated and deactivated before disconnecting the 0.6 m adapter cable or disturbing the internal expansion rack connections to prevent localized backplane logic corruption.

Field Installation Guidelines

  • Baseplate Orientation and Grounding Execution: Snap the baseplate housing securely onto standard 35 mm DIN rails inside the marshalling enclosure. System grounding requires a dedicated low-impedance copper wire rated at 12-AWG or larger, terminated via a ring terminal directly to the primary panel earth block, maintaining an electrical resistance parameter below 1 Ohm.
  • Bus Expansion and Cable Limits: Connect the dual upstream expansion links using the specified 0.6 m cable assembly. The maximum expansion distance for the overall daisy-chain network configuration must not exceed 15 meters (50 feet) total, and a terminal plug must reside at the final logical node.
  • Relay Output and I/O Wire Segregation: Route the 4 Normally-Open auxiliary status relay lines through field wiring channels separated from high-voltage motor conductors or variable frequency drive leads. Maintain a physical separation of at least 300 mm to eliminate electromagnetic induction risks across the contact loops.
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