MONO LASER’s femtosecond laser, with its core characteristics of ultra-short pulses (on the order of 10⁻¹⁵ seconds) and ultra-high peak power, provides a breakthrough solution for the fine machining of optical components.
As the "pupils" and "nerves" of optical systems, diaphragms and slits are core components determining the performance of optical instruments, widely used in:
· Microscopy & Imaging Systems: Precisely control light flux and depth of field to enhance imaging clarity;
· Spectrometers & Spectral Equipment: Fine-tune the bandwidth of optical signals to ensure spectral analysis accuracy;
· Laser Processing Equipment: Serve as key components for beam shaping to optimize energy distribution;
· Medical Optical Devices: Achieve micron-level spot positioning in devices like fundus scanners.
Technical Pain Point Example: In high-end spectrometers, burrs on slit edges processed by traditional methods cause optical signal scattering, reducing spectral resolution by over 30%. Even micron-level defects can trigger a chain reaction of process inaccuracies, reduced detection efficiency, and yield decline.
MONO LASER’s femtosecond laser technology achieves disruptive breakthroughs over traditional processes with three core advantages:
· Ultra-Precision Cold Processing: Instant energy release from ultra-short pulses minimizes the heat-affected zone to near-zero, enabling submicron accuracy (±1μm) and eliminating defects like burrs and chipping;
· Universal Material Compatibility: Works with metals (stainless steel, titanium alloy), brittle ceramics (zirconia, silicon carbide), polymers, and more, breaking through material limitations of conventional methods;
· Customized Complex Structure Machining: Supports the fabrication of micro-hole arrays, gradient apertures, 3D curved surfaces, and other complex structures to meet the customized needs of high-end optical systems.
