UR6PV GE Multilin Digital I/O Module | New Stock
UR6PV GE Multilin Digital I/O Module | New Stock
UR6PV GE Multilin Digital I/O Module | New Stock
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UR6PV GE Multilin Digital I/O Module | New Stock

  • Manufacturer: GE Fanuc

  • Part Number: UR6PV

  • Condition:New with Original Package

  • Product Type: Digital I/O Cards

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE Multilin UR6PV Universal Relay Digital Input Output Module

Configured for discrete status acquisition and contact control execution in Universal Relay (UR) series chassis, the GE Multilin UR6PV (UR6PV Digital I/O Module) provides direct physical/electrical execution.

Hardware Specifications

Parameter Specification
Model UR6PV
Brand GE Multilin
Origin USA
Module Type Digital Input / Output Expansion Module
System Platform Universal Relay (UR) Series (B30, C30, D60, G60, N60, etc.)
Digital Inputs Up to 16 optically isolated inputs with auto-burnish capability
Digital Outputs Trip-rated Form-C relay outputs and solid-state outputs
Isolation Optical isolation on inputs; galvanic isolation on output loops
Operating Temp -40 to +70 deg C
Storage Temp -40 to +85 deg C
Weight 0.60 kg to 1.15 kg (Hardware build dependent)

Profinet / EtherNet/IP Deterministic Networks and I/O Density Scaling

The UR6PV expands the physical I/O density scaling of utility automation racks by adding 16 dense input paths alongside trip-rated Form-C interlock contacts. Internal optical couplers isolate incoming discrete voltage signals from the core backplane logic lines, filtering out common-mode substation noise surges. High-speed signal processing on the internal bus infrastructure allows real-time state transitions to communicate with the host protective CPU over deterministic backplane bus communication velocity frameworks. When bridged through UR-chassis communications modules, this sub-millisecond data integrates directly with Profinet or EtherNet/IP deterministic networks, enabling automated breaker management and synchronization across wide-area SCADA structures.

Frequently Asked Questions

Q: Does the technical design of the UR6PV allow hot-swap maintenance under live control power configurations?

A: Yes. The UR6PV module architecture supports hot-swappable replacement procedures, enabling field maintenance tasks without necessitating a complete shutdown of the main protective chassis power supply module.

Q: What physical function does the auto-burnish configuration provide on the discrete input circuits?

A: The auto-burnish function momentarily coordinates a precise electrical wetting pulse across incoming external field contacts during transition cycles. This mechanical contact conditioning clears localized oxidation or film buildup, preserving signal transmission fidelity.

Q: How do the Form-C output relay contacts handle severe high-current trip-rated inductor inductive inductive breaks?

A: The Form-C configuration provides mechanical heavy-duty electrical ratings capable of initiating and interrupting direct breaker trip coil currents. Internal arc suppression networks protect the physical contact surfaces from material pitting during inductive energy releases.

Field Installation Guidelines

  • Chassis Slot Tracking Alignment: Slide the vertical edge bounds of the UR6PV board carefully into the designated slot guides of the UR enclosure. Press inward until the rear pins seat completely into the internal backplane bus sockets, then tighten the front plate retention screws.
  • Wetting Voltage and Input Signal Isolation: Check that external contact wetting voltages conform strictly to the thresholds designated on the module side labels. Keep discrete control bundles separated from dynamic current transformer secondary paths.
  • Shield Grounding Single-Point Continuity: Route all field status and trip wiring through multi-conductor shielded cables. Land the copper shield braid strands at the primary cubicle chassis ground strip, maintaining a single-point connection to eliminate ground loop current injection.
  • Thermal Dissipation Boundaries: Confirm that adjacent cooling vents remain free of physical obstructions. Ensure cabinet convective airflow is sufficient to maintain localized micro-climate metrics within the specified -40 to +70 deg C threshold limits.
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