The Xantrex XDC20-600 is a programmable DC power supply engineered for demanding benchtop, ATE, burn-in, and production test environments. Delivering 12 kW across a 0–20 V, 0–600 A output range, it combines precision regulation with advanced embedded control for complex automated test sequences and OEM system integration.
Technical Specifications
Output Ratings
• Voltage: 0–20 V DC
• Current: 0–600 A DC
• Power: 12,000 W (12 kW)
Input Options
• Standard: 3-phase 208 VAC
• Optional: 3-phase 342–500 VAC high-voltage input
Output Performance
• Efficiency: 82% minimum; 89% typical at nominal line and ambient temperature
• Voltage ripple (RMS): 10 mV
• Voltage ripple (peak-to-peak, 10 Hz–20 MHz): <350 mV
• Line and load regulation specified across full input and load ranges
• Voltage mode load step recovery: ±0.75% within 3 ms for 50–100% step changes
• Transient response: ≥4 ms with <5% output deviation after source intervention
• Programming accuracy: ±0.3% of full-scale output
• Meter accuracy—voltage: ±0.15% of Vmax; current: ±0.15% of Imax
• Minimum output voltage: <0.15% of rated voltage at zero setting
• Minimum output current: <0.2% of rated current at zero setting with rated load
– Key Features
• Embedded controller with menu-driven auto-sequencing for up to ten test programs
• Each program supports up to 99 voltage level steps, triggered manually or externally
• Ten storable and recallable output and protection configurations
• Zero voltage soft switching for low-noise, high-efficiency operation
• Power factor correction (PFC) standard
• Constant power mode regulation
• Current sharing for parallel multi-unit configurations
• Remote analog programming and monitoring with selectable remote on/off and interlock logic
– Typical Applications
Benchtop testing, automated test equipment (ATE) systems, burn-in operations, production test, and OEM integration requiring reliable, programmable DC power with precise regulation.
– Compatibility & Integration
Supports remote control interfaces for system integration and enables parallel operation via current-sharing architecture for higher-power applications.
