Adjustable phase and beam convergence control interference patterns for precise laser machining of glass, plastic, and metal workpieces.
Line-shaped beams and lens-array collimation expand LiDAR coverage while improving SNR and reducing mechanical scanning complexity.
Using refraction instead of reflective beam steering, this LIDAR case expands field of view and duty cycle to improve range resolution.
A reflective optical path spreads laser light across the phosphor, easing heat dissipation while keeping the package compact and bright.
A VCSEL array with dual microlens arrays replaces mechanical scanning to deliver faster, high-resolution 3D LIDAR mapping.
A concave transparent seal redirects ultraviolet light away from the organic adhesive, improving optical package durability at lower cost.
A unitary LED lens in direct contact with the emitter uses total internal reflection to shape beam output, improve uniformity, and avoid secondary optics.
Dual microlens arrays and a VCSEL transmitter replace mechanical scanning to improve scan rate, reliability, and high-resolution 3D mapping.
A resonant Hadamard mask and aligned light collector array boost optical sensing resolution and light efficiency with a smaller photodetector array.
Stacked inorganic and organic microlenses boost LED light extraction and sidewall light recycling without adding display thickness.
A double-sided sapphire microlens array cuts reflection loss and improves optical coupling for more uniform, higher-intensity deep UV LED emission.
Parallel optical-axis alignment brings multiple laser beams to a common target region, improving EUV irradiation efficiency on moving material.