International audienceThis paper deals with the design of an erbium doped microstructured optical fiber (MOF) amplifier operating in the mid-infrared (mid-IR) wavelength range, more precisely around 4.5 µm wavelength. A homemade numerical code which solves the rate equations and the power propagation equations has been ad hoc developed to theoretically investigate the feasibility of mid-IR MOF amplifier. On the basis of the measured energy level transition parameters of a Er3+-doped Ga5Ge20Sb10S65 chalcogenide glass, the amplifier feasibility is demonstrated exhibiting high gain and low noise figure
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...
International audienceThis paper deals with the design of an erbium doped microstructured optical fi...