Servo Motor Controlled AVRs | Industrial machinery, commercial equipment | Three-phase servo motor control (IEC 60038), 380V input/output (▲20% higher stability than tap switches), 100kVA (▲10% above industry average) | ±1% voltage regulation (▲0.5% better than industry avg), CE/UKCA certified | Higher cost (▲$200 more), requires skilled installation |
Tap Switch AVRs | Residential, small businesses | Mechanical tap switching (IEC 60947), 220-240V single-phase, 50kVA output | Lower cost (▲$150 cheaper than servo models), simple design | ±5% voltage variation (▲worse than servo’s ±1%), mechanical wear over time |
Digital/Electronic AVRs | IT infrastructure, medical equipment | Microprocessor control (ISO 9001), ±2% regulation (▲faster response), 60kVA output | Programmable settings (▲customizable thresholds), compact design | Susceptible to surges (▲risk without surge protection), complex setup |
T-Mux 100KVA Servo Motor AVR | Industrial plants, manufacturing systems | 100kVA output (▲industry standard), 380V three-phase (▲full phase compatibility), short-circuit/overload protection (IEC 61000-4-11) | Stable ±1% regulation, low noise (43 dBA ▲quieter than competitors’ 48 dBA) | Bulky size (▲requires more space), higher maintenance needs |
Static VAR Compensators (SVC) | Power grids, high-voltage systems | Reactive power compensation (IEEE 1159), 500kVA+ (▲far exceeds AVRs), sub-millisecond response | Improves power factor (▲up to 0.99), handles high loads | Very high cost (▲$5k+ more), complex installation |
Three-Phase Servo Stabilizers | Data centers, commercial buildings | Three-phase capability (▲simultaneous phase balancing), 100kVA (▲matches T-Mux’s model), servo regulation | Reliable for three-phase systems (▲no imbalance), low noise (▲43 dBA) | Requires calibration (▲every 6 months), higher upfront cost |