

By synchronizing proprietary technologies across the electrical system, we create a fully balanced and optimized power network from source to load.
XECO and XCT conduct a detailed power quality assessment to map the site's full electrical profile.
XECO and XCT engineering teams develop a tailored power quality solution — the right mix of equipment for the site's footprint.
XCT Energy oversees installation with local preferred contractors, providing full training to ensure results are delivered.
With on-site electrical contractors, the XCT Energy team commissions each system to verify seamless operation.
XECO and XCT measure and validate every deployment's impact. Clients receive clear performance reports demonstrating real results.
Continuously monitors load currents using high-speed DSP, detecting and cancelling harmonic distortion within microseconds — no manual tuning required.
The XPF generates equal-magnitude, opposite-phase compensating currents and injects them back through a voltage-source inverter (VSI), restoring the supply waveform to near-sinusoidal shape. Because the detection–compensation cycle occurs within microseconds, harmonics are mitigated instantly rather than waiting for steady-state conditions.
Closed-loop control continuously tracks changes in load current and harmonic spectrum. When load conditions fluctuate, the XPF automatically recalculates the required compensating current and adjusts inverter output in real time.
Triplen harmonics accumulate additively in the neutral conductor, causing neutral currents to exceed phase levels. The XPF detects and eliminates these zero-sequence components at the source.
By targeting dominant harmonic orders and injecting counter-harmonic currents, the XPF reshapes the current waveform to closely match an ideal sinusoid — reducing THD from 20–30% down to below 5%.
Continuously monitors phase voltages, corrects imbalances in real time, and actively compensates reactive current — freeing infrastructure capacity without physical upgrades.
Balanced voltage reduces negative sequence currents in motors, stabilizes sensitive electronics, minimizes nuisance tripping, and lowers localized overheating. Distributed voltage correction creates phase symmetry throughout the facility — from main switchgear to every end-use load.
When voltage is unstable, equipment draws excess current to maintain output, widening the gap between average and peak demand. Consistent voltage keeps motors at rated efficiency and demand spikes reduced.
Inductive loads draw reactive current that increases total flow without performing useful work. The LC Series dynamically adjusts phase relationships to compensate — without fixed capacitor banks that overcompensate at low loads.
Infrastructure is rated in kVA. When reactive current and voltage imbalance are present, that capacity is partially consumed by non-productive components. Stabilizing voltage and reducing reactive current frees capacity within existing infrastructure — no transformer replacement needed.
Each installation is based on a load profile analysis, not assumptions. We recognize that each facility is unique and if measurable inefficiencies do not exist, we do not recommend deployment.