RealLight's GS07 series conduction-cooled diode laser array is optimized for solid-state laser pumping. Featuring hard solder packaging and direct conductive cooling, it operates reliably above 70°C without water cooling. Single bars deliver 150-200W with up to 15 bars integrated. Multi-wavelength options (796/802/806nm) precisely match Nd:YAG and Yb:YAG crystals, enhancing absorption efficiency and reducing thermal loss for compact, rugged applications.

Visibility quantum lidar uses Mie scattering to retrieve the extinction coefficient and calculate 3D visibility, overcoming the limits of single‑point meters. For the low‑altitude economy, miniaturized systems require compact lasers. RealLight’s passively Q‑switched microchip laser offers small size, low power, narrow pulses, and stable pointing, making it ideal for short‑range, high‑reliability visibility monitoring.

Semiconductor lasers excel as pump sources with good monochromaticity, compact size, and long lifespan. Laser bars deliver far higher power than single chips. Stacked arrays—formed by closely arranging continuous or pulsed bars—achieve hundreds to thousands of watts. RealLight offers GS, AA, PA, and WA series stacks supporting multi-wavelength combinations and conduction or water cooling for high-energy solid-state laser applications.

Diode laser arrays stack multiple bars vertically for high-power output, with single bars delivering 150-200W. End-pumping and side-pumping configurations serve different applications. Fast and slow-axis collimation enhance beam quality. RealLight's GS06 series offers compact, multi-wavelength arrays with customizable options.

Stacked diode lasers achieve high power and compact structure through vertical bar stacking, with single-bar peak power reaching 100-200W. As core pump sources, they are widely used in inertial confinement fusion, directed energy systems, and space detection. RealLight's independently developed GS/AA/PA series stacked modules cover 790-960nm wavelengths with customizable conduction cooling solutions, supporting high-power laser system development.

The 1470nm laser leverages strong water absorption for efficient localized energy conversion. Its precise thermal effects enable controlled tissue interaction with minimal peripheral impact (