PROCEEDINGS OF SPIE
Spectral beam combination has been successfully achieved for high power fiber lasers, diode laser arrays and diode laser stacks. We have recently achieved the spectral beam combination
This technique describes the combining of two or multiple lasers using diffractive optical elements like diffraction gratings or volume Bragg gratings. In both cases power scaling can be achieved with combining efficienc...
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Spectral beam combination has been successfully achieved for high power fiber lasers, diode laser arrays and diode laser stacks. We have recently achieved the spectral beam combination
To some extent the emission wavelengths of diode lasers can be tuned by changing the laser temperature. However, shifting the emission wavelength over several nanometers as mentioned
In this study, we propose an SBC structure based on blue diode wavelength-locked arrays, utilizing the blue laser array as the fundamental unit and performing the combination along
Another way to combine two or more lasers of the same wavelength is to "knife edge" them. Essentially, 2 or more lasers are "stacked" by using mirrors. Its hard to explain without using
Spectral beam combining of a broad area diode laser is a promising technique for direct diode laser applications. We present an experimental study of three mini-bar stacks in an external
We demonstrate the use of a binary diffractive optical element in a very simple setup to convert the multilobed beam from a low fill factor array of coherent laser diodes into a quasi
Spectral beam combing of diode laser array stack in an external cavity can provide higher power output. In this work, the device with the output power of 268 W with its eficiency of 100%, and the beam
Diode-laser arrays have long generated high powers by combining the outputs of many laser stripes. That works well for applications, like diode pumping, that do not require high beam
Detailed analysis of the physics of passively phase-locked lasers still needed. Careful design & optimization of the CBC architecture in regard with the devices. New results in BRIDLE expected !