Adjustable mirrors and beam splitters focus multiple laser beams evenly onto the wire, improving cladding accuracy while reducing lens complexity and energy loss.
A rotatable directional body redirects the laser beam across surface geometries while shielding vulnerable optics from contaminants.
An orthogonal stepper drive converts rotation to precise lens travel, improving laser focal control without bulky magnetic mechanisms.
An airtight holder and protective glasses shield a high-power laser optical element from dirt, limiting heating, damage, and imaging errors.
A high-thermal-conductivity closing optical element dissipates heat from soiling spots to prevent laser damage, downtime, and optical quality loss.
A sealed sliding lens assembly enables remote focus adjustment, precise alignment, and easy lens replacement without ambient exposure.
A surrounding optical-axis detector and mirror actuators keep high-power laser light centered in the fiber core to prevent cladding damage.
Threaded phase plate, aspheric lens, and beam expander modules simplify alignment while producing diffraction-limited alternating beam profiles.
Pre-aligned optics and adjustable coupling compensate beam path deviations, enabling comparable laser process signals with less setup time.
A workpiece imitation reproduces aberrations so Bessel beam optics can be aligned accurately and the focus zone can be measured.
A dielectric mirror deflects the laser beam while transmitted radiation is absorbed by a sink to limit heating and keep optical alignment stable.
High-conductivity outermost optics, especially sapphire with water-cooled heat sinking, limit contamination heating, focus shift, and downtime.
Motorized optical element positioning varies laser beam parameter product in real time, avoiding fragile component swaps and realignment delays.