Kontrox™ is Comptek Solutions’ patented advanced passivation technology engineered to overcome native oxidation and surface defect challenges in compound semiconductors. By transforming semiconductor surfaces into a stable native crystalline oxide structure, Kontrox™ eliminates up to 98% of surface defects and creates a robust, contamination-resistant interface that significantly improves device performance and long-term reliability.
Surface and interface defects are among the key limitations in III–V and wide-bandgap semiconductors, where rapid native oxidation generates electrically active defect states that degrade efficiency, stability, and yield. Kontrox™ directly addresses this bottleneck through precise surface preparation and controlled nanoengineering of the native oxide, enabling semiconductor interfaces with unprecedented stability and electronic quality.
Kontrox™ delivers substantial performance benefits across both optoelectronic and power devices. In microLEDs, it has demonstrated over 250% efficiency improvement and up to 90× lower power consumption, while enabling dramatic chip-size reduction without sacrificing performance. This allows manufacturers to place significantly more devices per wafer, cutting material usage, cost, and environmental impact.
For GaN power devices, Kontrox™ provides a clear advantage over conventional thin-film passivation (ALD or PECVD) by delivering a stable native oxide interface that improves channel stability and electron transport, enabling higher efficiency, lower losses, improved reliability, and increased manufacturing yield.
Kontrox™ is compatible with a wide range of III–V materials, including GaAs, GaN, InGaAs, GaSb, InP, InAs, and InSb, and supports applications spanning lasers, microLEDs, IR detectors, VCSELs, RF devices, and power electronics. The technology is designed to complement or replace conventional passivation approaches with a lower total cost of ownership, improved scalability, and superior device stability.
Kontrox™ enables a new level of performance, sustainability, and manufacturing economics for next-generation compound semiconductor devices.