Skip to content

What are you looking for?


You may also like

ABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT ModuleABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT ModuleABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT Module
ABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT Module
ABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT Module
ABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT Module

ABB 3BHE014105R0001 5SHX26L4510 5SXE05-0154 IGCT Module


Only 10 left - Selling fast

PRODUCT SKU : 3BHE014105R0001 5SHX26L4510 5SXE05-0154

PRODUCT TYPE : IGCT Modules

PRODUCT VENDOR : ABB


  • 100% Genuine Parts – Risk-Free 30-Day Returns
  • 1-Year Warranty & Expert Support for Every Order

Product Details

The ABB 5SHY3545L0020 3BHE014105R0001, also cataloged as the 5SHY3545L0020 IGCT Module, operates as a dedicated hardware component for high-power semiconductor switching within power generation and electrical drive platforms. The device executes reverse-conducting integrated gate-commutated thyristor (RC-IGCT) routines natively at the machinery tier, managing a repetitive peak off-state voltage of 4500 V and a permanent DC link voltage of 2800 V. It balances high snubberless turn-off ratings with a simple control interface, using optical feedback lines to register state changes across medium frequency networks.

Hardware Specifications

Parameter Specification
Model 5SHY3545L0020 3BHE014105R0001 5SXE05-0154
Brand ABB
Origin Switzerland (ABB Switzerland Ltd. Semiconductors)
Weight Heavy-duty press-pack assembly dependent
Dimensions Standard structural press-pack format
Operating Temp 0 to 125 deg C (Junction operating temperature)
Power Consumption Gate Unit consumption: Max 100 W
Product Type Reverse Conducting Integrated Gate-Commutated Thyristor (RC-IGCT)
Product Code 5SHX 26L4510
Repetitive Peak Off-State Voltage (VDRM) 4500 V
Permanent DC Link Voltage (VDC-link) 2800 V (for 100 FIT failure rate)
GCT Continuous Current Ratings Max Average: 1010 A / Max RMS: 1590 A
GCT Non-Repetitive Surge Current (ITSM) 17 x 10^3 A
GCT On-State Voltage Drop (VT) 2.3 V to 2.95 V
Turn-On Parameters Delay Time (tdon): 3.5 us / Energy per pulse (Eon): 0.85 J / Critical di/dt: 100 A/us
Diode Continuous Current Ratings Max Average: 390 A / Max RMS: 620 A
Diode Non-Repetitive Surge Current (IFSM) 10.6 x 10^3 A
Diode On-State Voltage Drop (VF) 3.54 V to 5.4 V
Diode Reverse Recovery Parameters Recovery Current (IRM): 900 A / Recovery Charge (Qrr): 2800 uC
Gate Unit Input Requirements Voltage (VGIN,RMS): 28 V to 40 V / Min Power-Up Current (IGIN): 2.1 A
Thermal Resistance (Junction-to-Case) GCT: 12.6 K/kW / Diode: 26 K/kW
Storage Temperature Range -40 to 60 deg C

Profinet / EtherNet/IP Deterministic Networks

The high-power semiconductor module isolates its fast turn-on delay time parameters from the slower control backplane cycles via localized optical interfaces. Maintaining firmware flash compatibility across matching drive excitation control blocks allows the gate unit to supply the continuous 2.1 A power-up baseline current without introducing voltage dropouts to the core power link. Diagnostic status feedback paths map directly from the integrated gate unit to host Profinet / EtherNet/IP deterministic networks, maintaining sub-millisecond execution tracking of junction operating temperatures and blocking limits.

Frequently Asked Questions

Q: What are the backplane current and power limits when initializing the integrated gate unit?

A: The gate unit requires an absolute minimum current (IGIN) of 2.1 A rms within a voltage window of 28 V to 40 V to power up its internal driving logic. Total steady-state power consumption (PGIN) peaks at 100 W under maximum medium frequency operating loads.

Q: Can this module be hot-swapped while the 2800 VDC permanent link is isolated but auxiliary control loops are energized?

A: No. The press-pack device requires precise mechanical force distribution and complete de-energization of both the 4500 V blocking paths and the 28 V to 40 V gate supply lines before servicing. Attempting removal under active auxiliary power will permanently damage the optical status feedback components.

Field Installation Guidelines

  • Mechanical Clamping Precision: Mount the module within an approved press-pack frame that ensures parallel pressure distribution over the pole faces to satisfy the 12.6 K/kW GCT thermal resistance parameters.
  • Gate Unit Supply Cable Routing: Keep the auxiliary AC or DC power cables feeding the gate unit separate from high-current motor phases or high-voltage lines to prevent electromagnetic noise induction.
  • Optical Isolation Line Care: Route the fiber optic status feedback lines with a bend radius that strictly follows industrial standards to eliminate signal degradation or pulse distortion during sub-microsecond switching operations.

Additional Information

  • 100% Genuine Parts: All products are original and authentic, ensuring reliable industrial performance.
  • 30-Day Refund Guarantee: Return any in-stock item within 30 days in original, unopened packaging for a full refund (excluding shipping and fees).
  • 12-Month Warranty: Covers defects in materials or workmanship; excludes misuse, normal wear, or unauthorized modifications.
  • Worldwide Shipping: We ship via USPS, UPS, FedEx, and DHL. Delivery times vary by country and may be subject to customs or import fees.
  • Support & Contact: Technical and warranty assistance is available anytime. Contact us here: Contact.
  • Purchase Guidance: Check product specifications and compatibility carefully before ordering to ensure proper application.




Recently Viewed Products

Tech & Buying Guide

Technical Insights, Installation Guides, and Buying Tips
Mastering VFD Braking Theory and Mechanical Brake Sequencing in Industrial Automation

Mastering VFD Braking Theory and Mechanical Brake Sequencing in Industrial Automation

In industrial automation, variable frequency drives (VFDs) regulate motor speed and torque across manufacturing plants and material handling systems. However, certain heavy-duty applications experience external loads that can rotate the motor shaft without an active command. For instance, gravity pulls loads downward in unanchored hoisting equipment. Therefore, engineers integrate mechanical brakes with VFD logic to maintain absolute safety and prevent structural damage or personnel injury during shutdowns.

Read more
Optimizing Tank Level Control Using Proportional Algorithms in PLC Systems

Optimizing Tank Level Control Using Proportional Algorithms in PLC Systems

Industrial automation engineers frequently encounter liquid level regulation challenges across diverse process plants. Traditional ON-OFF control mechanisms often disrupt system stability due to abrupt actuator switching. Therefore, upgrading to closed-loop architectures like proportional control yields smoother responses. In a typical PLC environment, such as Siemens TIA Portal, engineers utilize closed-loop feedback to minimize process errors without requiring full PID complexity.

Read more
Understanding Why Your PLC Enters Stop Mode: Causes and Troubleshooting

Understanding Why Your PLC Enters Stop Mode: Causes and Troubleshooting

In industrial automation, programmable logic controllers (PLCs) serve as the core intelligence of modern factory automation and distributed control systems (DCS). Understanding how a PLC transitions between modes is vital for maintenance engineers. Typically, a PLC operates across four primary modes: Run, Stop, Start-Up, and Hold. When power is applied, the system immediately boots into Stop mode before initiating the Start-Up sequence. If the controller encounters a critical error during execution, it automatically reverts to Stop mode to prevent equipment damage. Therefore, monitoring these state transitions helps technicians maintain high system availability.

Read more