Sentence examples for fundamental beam from inspiring English sources
The fundamental beam is split in two paths (B1 and B2) using a 50% beam splitter.
In addition, the effect of pump and gain medium properties on the optimal fundamental beam by taking into account thermal aberration are investigated.
The explicit expressions are approximate, however, and are therefore generally inaccurate for the fundamental beam mode, and for a crack located in a boundary near field.
Instead of having one fundamental beam incident on the interface, two incident beams at two different angles were allowed to overlap in space and time on the sample surface in a similar way as in sum frequency generation (SFG) experiments.
In particular, there are two possible approaches: (1) frequency double a ({sim}400mbox{ nm}) fundamental beam, e.g., using novel developments in cavity-assisted second-harmonic generation using whispering-gallery-mode β-Barium-Borate resonators [19].
The cavity was designed to make the fundamental beam radius at the KTP crystal smaller than that at the gain medium, as is required for obtaining large mode volume in Nd YAG crystal and realizing efficient CW intracavity frequency doubling.
The high order TE22,6 mode is selected as the operating mode and the electron beam is launched at the first radial maxima for the fundamental beam-mode operation.
The background signals which may arise from different optics and which may accompany the split fundamental beams are of no relevance because they follow different paths (after reflection) from that of the signal generated at the interface (signal to be probed).
The fundamental mode beam radius in rod, fundamental mode beam radius on the mirror, beam quality factor, and the value of the degree of the symmetry of the TEM00 mode volume as a function of the between neighbor rods distance, laser rod end face to mirror distance, and input power are simulated.
The spreading properties of vector laser beams and fundamental Gaussian beams are studied comparatively.
In this work, above low-energy cluster chamber is addressed to synthesis nanostructure carbon materials including ultra-thin film and graphene, expanding fundamental ion beam applications in this machine.
