T35-E00HKH GE Vernova Multilin T35 Datasheet & Technical Manual
T35-E00HKH GE Vernova Multilin T35 Datasheet & Technical Manual
T35-E00HKH GE Vernova Multilin T35 Datasheet & Technical Manual
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T35-E00HKH GE Vernova Multilin T35 Datasheet & Technical Manual

  • Manufacturer: GE Fanuc

  • Part Number: T35-E00HKH-F8G-H6V-M8G-P6V-U6V-W6V

  • Condition:New with Original Package

  • Product Type: Transformer Protection Relays

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE Vernova T35-E00HKH Multilin Transformer Protection System

The GE Vernova T35-E00HKH-F8G-H6V-M8G-P6V-U6V-W6V, also cataloged as the T35-E00HKH Transformer Protection Relay, operates as a dedicated hardware component for multi-winding fault detection and breaker control within modern industrial substation networks. The rack-mounted apparatus executes high-speed current differential calculations and restricted earth fault logic via direct current transformer (CT) and voltage transformer (VT) instrumentation loops.

Hardware Specifications

Parameter Specification
Model T35-E00HKH-F8G-H6V-M8G-P6V-U6V-W6V
Brand GE Vernova (GE Grid Solutions)
Origin United States
Weight 1.20 kg
Dimensions Standard 19-inch rack-mount chassis configuration
Operating Temp -40 to 70 deg C
Power Consumption Determined by internal modular power supply board selection (DC/AC rails)
Protection Functions Differential, restricted earth fault, overcurrent, breaker failure, over-fluxing
Analog Inputs Multiple CT and VT terminal processing channels
Communication Protocols IEC 61850 Ed.1 & Ed.2, Modbus TCP/IP, DNP3, HardFiber interface
Cybersecurity Framework RBAC, Syslog, AAA, Radius, NERC CIP compliance
Waveform Capture Integrated event recording, oscillography, and thermal monitoring
Ingress Protection IP40 front panel protection rating
Certifications IEEE C37.91, CE, UL, CSA, IEC compliance

Profinet / EtherNet/IP Deterministic Networks and Backplane Bus Execution

The T35-E00HKH executes high-density analog signal processing across a dedicated internal backplane bus structure, matching parameters seen in Profinet / EtherNet/IP deterministic networks. The modular chassis layout coordinates synchronous analog-to-digital conversions from parallel CT/VT blocks, matching sample values to active logic elements without bus jitter. This execution sequence enables raw data packets to transform into standard IEC 61850 GOOSE data frames within sub-millisecond cycles, allowing horizontal peer-to-peer interlocking logic to transfer across the substation LAN while maintaining deterministic trip reliability.

Frequently Asked Questions

Q: How does the T35-E00HKH manage internal firmware flash compatibility when updating substation network elements?

A: Firmware updates require exact matching between the host module hardware code and the binary configuration file. The unit verifies the internal boot code version prior to running a flash update, protecting configuration parameters, event records, and NERC CIP access rules from corruption during the upgrade cycle.

Q: Can the internal power supply or analog I/O blocks be hot-swapped while current transformer loops are active?

A: No. The chassis modules must not be unseated or serviced while energized. Uncoupling active current transformer inputs risks inducing open-circuit high-voltage transients that can cause terminal arcing, compromise component insulation, and generate hazardous field voltage conditions.

Field Installation Guidelines

  • Chassis Ground Plane Bonding: Mount the 19-inch enclosure assembly inside a secure instrument panel. Connect a heavy-gauge copper strap from the rear chassis ground stud directly to the main substation copper ground bar to ensure proper noise shielding.
  • CT Shorting Block Termination: Always route all instrument CT lines through an external shorting switch block before connecting them to the rear terminal pins, enabling isolation during testing procedures.
  • Network Cable Isolation: Separate all fiber optic lines and category ethernet runs from high-voltage AC controls and breaker trip lines to prevent inductive noise from causing data frame drops.
  • Thermal Convection Maintenance: Mount the housing vertically inside the enclosure, keeping a clear physical space above and below the cooling slots to maintain ambient operating limits between -40 and 70 deg C.
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