Demonstrates how controlling optical solitons in a rubidium medium can enhance pulse intensity, suggesting advances in communication technologies.
The area devoted to cross kerr nonlinearity and coherent driving fields are increasingly used to control optical solitons in atomic media. Recently this area has been investigated by using the concepts of fractals theory. Because, fractals theory has various applications in different disciplines of science and engineering. The said area has the capability to describe the complex geometry of dynamical problems. The propagation of light pulse and their solitonic behavior are investigated in a [Formula: see text] medium of four-levels. Significant control over the absorption, dispersion, group refractive index and pulse propagation is reported with variation of coupled driving fields. The sublominal group velocity of [Formula: see text] and superlominal propagation of group velocity of [Formula: see text] is controlled. The bright and dark soliton pulse is modified with variation of driving fields in the superluminal and sublominal regions. Due subluminality of light dark soliton is reported and superluminality bright soliton is noted in the medium. The maximum of 80% output pulse intensity is controlled. The intensity of the output pulse is increasing and decreasing function of coupled driving fields Rabi frequencies. The modified solitons in this Ruidium atomic medium is comparably more informative and significant to solitonic pulse intensity control in four level cesium atomic medium under Doppler and inverse Doppler broadening effects. The modified results have useful application and soliton radar and communication technologies.
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Jeelani et al. (2026) studied this question.
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