100 mW – 400 mW 266 nm Nanosecond Laser
Deep‑UV Pulsed Laser for High‑Precision Industrial and Scientific Applications
Compact, Air‑Cooled Deep‑UV Nanosecond Laser
Introducing our new 266 nm nanosecond laser series – a diode‑pumped solid‑state (DPSS) laser delivering stable, diffraction‑limited deep‑ultraviolet pulses with average output power from 100 mW to 400 mW. Designed for demanding micro‑machining, semiconductor inspection, and spectroscopy, this laser combines short pulse duration (<10 ns), high peak power, and outstanding beam quality (M² < 1.2) in a robust, air‑cooled package.
Key Benefits at a Glance
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Deep‑UV Wavelength (266 nm) – Enables high‑resolution processing of transparent materials (glass, sapphire, quartz) and precise ablation with minimal heat‑affected zone.
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Adjustable Power from 100 mW to 400 mW – Choose the exact power level for your application; field‑adjustable models available.
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Short Nanosecond Pulses – Pulse width <10 ns (down to 1–2 ns options) provides extreme peak power for clean, reproducible material removal.
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High Repetition Rate – Operates from single‑shot up to 50 kHz, giving you full control over throughput and per‑pulse energy.
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Excellent Beam Quality – TEM₀₀ mode with M² < 1.2 ensures tight focusing and consistent spot size across the working area.
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Long‑Term Stability – <3% power drift over 12 hours; pulse‑to‑pulse stability <3% RMS for reliable, repeatable results.
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Compact, Air‑Cooled Design – No external chiller needed for most duty cycles; easy integration into OEM systems or benchtop setups.
Applications
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Precision Micro‑machining – Laser drilling, scribing, and cutting of thin films, ceramics, glass, and silicon wafers.
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Semiconductor & Electronics – Wafer defect inspection, laser lift‑off (GaN on sapphire), and memory repair.
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Laser‑Induced Breakdown Spectroscopy (LIBS) – Elemental analysis of metals, plastics, and geological samples.
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LIDAR & Remote Sensing – High‑repetition‑rate 266 nm pulses for atmospheric aerosol detection.
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Medical Device Manufacturing – Micromachining of stents, catheters, and ophthalmic implants.
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Scientific Research – Time‑resolved fluorescence, photoacoustic imaging, and deep‑UV Raman spectroscopy.




