Industries worldwide are grappling with the need for more sophisticated and compact optical solutions. The rise of augmented and virtual reality demands dynamic focus adjustment to prevent user discomfort, while advanced manufacturing requires high-speed, precise vision systems for automation and quality control. In automotive, the push for safer autonomous driving necessitates robust, adaptable camera and sensor modules capable of performing in diverse conditions. This technology directly supports these trends by offering a flexible, high-performance optical core.
Maximizes Lens Diameter: Achieves stable liquid crystal molecule alignment control up to the periphery, enabling larger lens diameters and contributing to wider fields of view and higher resolution.
Enables High-Speed, High-Precision Focus Adjustment: Non-contact ultrasonic control eliminates mechanical parts, allowing millisecond-order focus adjustment for reliable object capture in dynamic environments.
Secures Strong and Stable IP Rights: Granted after meticulous comparison with 7 prior art documents, this patent offers a stable foundation resistant to invalidation, ensuring a strong competitive advantage for long-term business development.
This patent, granted after overcoming rigorous examination against 7 prior art documents, protects the core technology of an ultrasonic liquid crystal lens. It broadly covers the ultrasonic transducer's electrode configuration and the control method for generating propagating wave modes via N-divided electrodes and phase-shifted electrical signals, ensuring strong and stable competitive advantages.
This patent primarily covers the ultrasonic control mechanism for liquid crystal lenses. White space exists in developing advanced AI-driven control algorithms for dynamic environmental adaptation or integrating this lens technology with novel sensor fusion platforms.
Implementing this technology could reduce complex multi-layer lenses and mechanical moving parts. For instance, a company manufacturing 500,000 optical modules annually could achieve a cost reduction of ~$1M/year (AI est.) by reducing component count (average 3 parts) and assembly labor (20%), leading to savings of ~$0.65/unit (AI est.) for parts and ~$1.35/unit (AI est.) for assembly. Further reductions in opportunity loss from improved defect rates are also anticipated.
X: Functionality & Responsiveness
Y: Miniaturization & Cost Efficiency