Description
ABB 5SHX1060H0003 with 3BHB020538R0001 – High‑reliability IGCT device and matched gate unit for medium-voltage power conversion

The ABB 5SHX1060H0003 is a press‑pack IGCT-class thyristor designed for high-power converters, and the ABB 3BHB020538R0001 is the dedicated gate unit that typically drives it with fiber‑optic command signals. From my experience, this pairing is chosen when engineers want the ruggedness of a press‑pack device, low conduction losses, and predictable clamping in stack assemblies used in MV drives, SVC/STATCOM, and heavy-duty rectifier fronts. One thing I appreciate is how the press‑pack format eliminates bond wires, which tends to improve thermal cycling life in many cases.
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- Warranty: 365 days
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Key Features
- Press‑pack IGCT device (5SHX1060H0003) – Disc-type semiconductor designed for clamped stacks, known for robust thermal cycling and predictable mechanical contact.
- Matched gate unit (3BHB020538R0001) – Typically uses fiber‑optic control for noise immunity and provides the high peak gate current needed for IGCT-class switching.
- Low conduction losses – Helps reduce heat load in medium-voltage converters and can cut cooling overhead in many cases.
- High surge capability – Press‑pack structure supports fault ride‑through strategies and controlled protection schemes.
- Field-proven in MV drive and FACTS stacks – Often seen in multi-level or series-stacked topologies where clamping force and uniform current sharing matter.
- Service-friendly – Disc devices are straightforward to replace in a clamped stack; the gate unit offers visual status and simple fiber handling.
Technical Specifications
| Brand / Model | ABB 5SHX1060H0003 (press‑pack IGCT-class thyristor) + ABB 3BHB020538R0001 (gate unit) |
| HS Code | 8541.30 – Thyristors (semiconductor devices) |
| Power Requirements | Device is passive; gate unit supply typically 24 VDC for drive/control, with isolated gate power from the driver stage |
| Dimensions & Weight | Press‑pack disc package, approx. Ø 91 mm class body; clamp-stack assembly height depends on heatsink design |
| Operating Temperature | Junction temperature typically up to 125 °C; storage −40…+125 °C (observe datasheet derating and case temperature limits) |
| Signal I/O Types | Gate/cathode press‑pack terminals to driver; gate unit with fiber‑optic receive (command) and status indication |
| Communication Interfaces | Fiber‑optic link (gate enable/disable), local status LEDs; no fieldbus on the device itself |
| Installation Method | Press‑pack clamping between heat sinks with specified force; gate unit mounted on insulated standoffs in control cabinet |
Application Fields
You might notice this set most often in installations where robustness beats compactness. Typical examples include:
- Medium‑voltage drives for compressors, pumps, fans, and rolling mills
- FACTS: SVC/STATCOM capacitor/thyristor valves and grid support converters
- Traction power converters and trackside substations
- High‑power rectifier fronts and DC links in metallurgical or chemical plants
- Wind and marine propulsion converters where thermal cycling reliability is critical
Advantages & Value
- Reliability under stress – Press‑pack format seems to handle thermal shock and load cycles better than many module types.
- Compatibility with MV stacks – Standard disc geometry integrates smoothly into existing clamp stacks and snubber layouts.
- Lower lifecycle cost – Reduced downtime, straightforward replacement, and efficient conduction result in tangible OPEX savings.
- Support and spares – We typically help with clamping hardware, snubbers, fiber‑optic links, and replacement gate units to keep the line running.
A maintenance lead from a cement plant told us their swap from mixed devices to a consistent 5SHX + 3BHB stack cut their unscheduled stops by half—small sample, but it lines up with what we see in the field.
Installation & Maintenance
- Cabinet & environment – Use an enclosed cabinet meeting IEC/UL industrial standards; keep ambient dust and humidity controlled; ensure clean airflow or liquid cooling as designed.
- Clamping force – Apply the manufacturer‑specified clamping force uniformly across the disc. Uneven force can raise on‑state losses or cause early failures.
- Heatsink surfaces – Clean, flat, and burr‑free. Use the recommended interface material sparingly; avoid over‑application.
- Gate unit wiring – Observe fiber‑optic bend radius; route away from high‑dv/dt conductors. Maintain proper isolation distances for MV creepage/clearance.
- Routine checks – Verify clamp torque/force during outages, inspect contact faces, clean filters, review gate unit status logs, and update gate unit firmware if available.
- Safety – De‑energize and discharge DC links before handling. Follow lockout/tagout, and use ESD precautions around the driver electronics.
Quality & Certifications
- RoHS compliant semiconductor device
- Manufactured under ISO 9001 quality systems (ABB)
- ISO 14001 environmental management at manufacturing sites (typical for ABB)
- CE/UL are generally not applicable to bare semiconductor devices; system-level compliance depends on the complete assembly
Supporting Components (on request)
- Clamping hardware sets for Ø ~91 mm press‑pack devices
- Snubber capacitors and damping networks sized for MV stacks
- Fiber‑optic transmitter/receiver links compatible with ABB gate units
- Heatsinks or liquid‑cooled cold plates matched to loss calculations







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