5SHX0660F0002

  • High Efficiency: Low on-state losses (<1.5 V at rated current) and reduced switching losses compared to traditional GTOs.
  • Fast Response: Intelligent digital overcurrent protection with trip accuracy within 2.1–2.2 A (vs. 6 A for standard breakers), minimizing voltage drops and fire risks.
  • Reliability: No need for snubber circuits due to IGCT’s stable turn-off characteristics, reducing component count and failure points.
  • Flexible Control: Individual channel enable/disable via remote signaling and cascaded startup for system-wide inrush management.
  • Case Study: In ABB’s ACS6000 medium-voltage drive, the 5SHX0660F0002 powers 5 MW industrial motors with 98% efficiency and 10+ years of field reliability.
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Description

1. Product Description

The ABB 5SHX0660F0002 is a high-performance Integrated Gate Commutated Thyristor (IGCT) module designed for medium-voltage power conversion applications in PLC automation systems. As part of ABB’s advanced power electronics portfolio, the 5SHX0660F0002 combines the low on-state losses of thyristors with the fast switching capabilities of transistors, making it ideal for demanding industrial and grid-scale applications. This module integrates a GTO chip, anti-parallel diode, and gate drive circuit, offering superior reliability and efficiency. Its intelligent power distribution features enable precise overcurrent protection, remote channel control, and cascaded startup to minimize inrush currents. The 5SHX0660F0002 is widely used in medium-voltage drives, grid stabilization systems, and industrial automation, delivering robust performance in harsh environments.

2. Product Parameters

Parameter Specification
Voltage Rating 6.5 kV (blocking voltage)
Current Rating 4.0 kA (nominal RMS current)
Switching Frequency Up to 1 kHz
Interface Type Fiber-optic gate drive
Cooling Method Water-cooled (optional heatsink)
Compatibility ABB ACS6000 series, grid-scale converters
Dimensions Compact design (industry-standard form factor)
5SHX0660F0002

5SHX0660F0002

3. Advantages and Features

  • High Efficiency: Low on-state losses (<1.5 V at rated current) and reduced switching losses compared to traditional GTOs.
  • Fast Response: Intelligent digital overcurrent protection with trip accuracy within 2.1–2.2 A (vs. 6 A for standard breakers), minimizing voltage drops and fire risks.
  • Reliability: No need for snubber circuits due to IGCT’s stable turn-off characteristics, reducing component count and failure points.
  • Flexible Control: Individual channel enable/disable via remote signaling and cascaded startup for system-wide inrush management.
  • Case Study: In ABB’s ACS6000 medium-voltage drive, the 5SHX0660F0002 powers 5 MW industrial motors with 98% efficiency and 10+ years of field reliability.

4. Application Areas and Use Cases

  • Industries: Manufacturing (motors), energy (grid stabilization), oil & gas (pumps/compressors), and transportation (locomotives).
  • Use Case: A 100 MVA grid converter in a renewable energy plant uses the 5SHX0660F0002 to manage grid synchronization and voltage stability, reducing harmonic distortion by 30% compared to legacy solutions.

5. Competitor Comparison

Compared to traditional power semiconductors (e.g., GTOs, IGBTs), the 5SHX0660F0002 offers:
  • 20% lower conduction losses than IGBTs at high currents.
  • 50% faster overcurrent response than mechanical circuit breakers.
  • Higher voltage blocking capability (6.5 kV vs. typical 3.3–4.5 kV for IGBTs).
    5SHX0660F0002

    5SHX0660F0002

6. Selection Recommendations

  • Compatibility: Ensure compatibility with your system’s voltage/current requirements (e.g., ABB ACS6000, Siemens SINAMICS Perfect Harmony).
  • Environment: Choose water-cooled variants for high-temperature environments (>50°C).
  • Budget: Balance upfront cost with long-term savings (e.g., reduced maintenance vs. IGBT modules).

7. Precautions

  • Installation: Follow ABB’s torque specifications for busbar connections to avoid thermal stress.
  • Cooling: Maintain coolant flow (5–10 L/min) and monitor temperature (max. 85°C junction temperature).
  • Maintenance: Inspect gate drive optics annually for contamination; replace every 5 years for critical applications.