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International Journal of Theoretical Physics

Electromagnetically Induced Grating Without Absorption Using Incoherent Pump

Yu-Yuan Chen, Zhuan-Zhuan Liu, Ren-Gang Wan

Published Jul 31, 2017• 2 citations
Publisher
DOI
10.1007/s10773-017-3480-x

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Abstract We propose a scheme of two-dimensional electromagnetically induced grating in a three-level Ladder-type atomic system, which is driven by a weak probe field, two orthogonal standing-wave fields, and an incoherent pump field. Due to the position-dependent atom-field interaction, the periodical susceptibility of the probe field can be obtained. By using an incoherent pump field, one can control the absorption (gain) and dispersion of the probe field. By choosing proper parameters, a electromagnetically induced gain-phase grating can be formed in the present system, and the probe energy can be diffracted from zeroth-order into high-order directions. Our scheme may be useful to design new photonic devices in optical information processing.
We propose a scheme for a beam splitter and a beam router via an electromagnetically induced blazed grating in a four-level double-Λ system driven by an intensity-modulated coupling field and an incoherent pump field. The blazed grating relies on the incoherent pump process, which helps in inducing large refractivity with suppressed absorption or even gain. Consequently, the weak probe beam can be effectively deflected with high diffraction efficiency, and, meanwhile, its energy is amplified. When using an intensity mask with two symmetric domains in the coupling field, the presented blazed grating provides the possibility of a symmetric beam splitter. The diffraction efficiency and diffraction order of the gratings are sensitive to the intensity of the coupling field, and, thus, the gratings can function as a tunable asymmetric beam splitter or a beam router, which distributes the probe field into different spatial directions. Therefore, the proposed scheme may have potential applications in optical communication and networking.
We introduce here double electromagnetically induced grating (DEIG) using a tripod atomic structure, wherein two probe and signal fields with different frequencies simultaneously experience an atomic grating. Properties of presented DEIG can be substantially modified by the detuning of the applied fields. It has also been found that applying an incoherent pump field has a remarkable influence on the high-order diffraction efficiencies. Amplification of travelling weak lights via the incoherent pump field results in large diffraction efficiencies in the first-order and second-order directions. Such a novel scheme might open up the possibility for designing a two-qubit switch that would be advantageous to quantum information processing and quantum networking.