A mode-locked fiber laser splits pulses through a beam splitter and fiber branch to increase repetition rates beyond 200 MHz.
A high aspect ratio core fiber decouples fast-axis waveguiding from slow-axis mode selection to enable single-mode propagation.
Segmenting the waveguide and gain medium simplifies manufacturing complexity while maintaining high optical confinement for silicon photonics.
Angled reflective regions modify incident radiation phase to transform an elliptical beam into a circular profile with uniform power distribution.
Folding the resonator into a U-shape extends the optical path for higher power output without increasing the physical length of the expensive ceramic body.
A compact laser designator uses a total internal reflection bounce geometry to place an end-pumped gain element at the resonator center.
Shield blocks ghosting light reflections between post-scan optical assemblies, preventing unintended photoconductive drum discharge and enhancing print quality.
Segmenting preamplification and power amplification stages eliminates temperature stabilization requirements while maintaining wide dynamic range operation.
Segmenting the optical path into independent modules reduces manufacturing complexity while maintaining precise beam alignment across various applications.