Research paperTheoreticalComputed RamanDynamic control of resonance fluorescence in graphene quantum plasmonicsAli A. Kamli, S. A. Moiseev, Jabir W. HakamiarXiv preprint·2025·10.13140/rg.2.2.28337.65129·arXiv:2510.10562AbstractThe spectral and statistical properties are explored for surface plasmon emission in resonance fluorescence from a driven two level emitter in the proximity of a 2D single graphene sheet. An exact closed-form analytic expression is derived for the emitted surface plasmon field in near and far regions. The spectrum and second-order coherence functions are analyzed as functions of graphene conductivity and dynamic control parameters, especially Fermi energy, to manipulate spectral linewidth and coherence.Read more
Research paperTheoreticalComputed RamanDynamic control of resonance fluorescence in graphene quantum plasmonicsAli A. Kamli, S. A. Moiseev, Jabir W. HakamiarXiv preprint·2025·10.13140/rg.2.2.28337.65129·arXiv:2510.10562AbstractThe spectral and statistical properties are explored for surface plasmon emission in resonance fluorescence from a driven two level emitter in the proximity of a 2D single graphene sheet. An exact closed-form analytic expression is derived for the emitted surface plasmon field in near and far regions. The spectrum and second-order coherence functions are analyzed as functions of graphene conductivity and dynamic control parameters, especially Fermi energy, to manipulate spectral linewidth and coherence.Read more
Research paperTheoreticalComputed RamanDynamic control of resonance fluorescence in graphene quantum plasmonicsAli A. Kamli, S. A. Moiseev, Jabir W. HakamiarXiv preprint·2025·10.13140/rg.2.2.28337.65129·arXiv:2510.10562AbstractThe spectral and statistical properties are explored for surface plasmon emission in resonance fluorescence from a driven two level emitter in the proximity of a 2D single graphene sheet. An exact closed-form analytic expression is derived for the emitted surface plasmon field in near and far regions. The spectrum and second-order coherence functions are analyzed as functions of graphene conductivity and dynamic control parameters, especially Fermi energy, to manipulate spectral linewidth and coherence.Read more
Research paperTheoreticalComputed RamanDynamic control of resonance fluorescence in graphene quantum plasmonicsAli A. Kamli, S. A. Moiseev, Jabir W. HakamiarXiv preprint·2025·10.13140/rg.2.2.28337.65129·arXiv:2510.10562AbstractThe spectral and statistical properties are explored for surface plasmon emission in resonance fluorescence from a driven two level emitter in the proximity of a 2D single graphene sheet. An exact closed-form analytic expression is derived for the emitted surface plasmon field in near and far regions. The spectrum and second-order coherence functions are analyzed as functions of graphene conductivity and dynamic control parameters, especially Fermi energy, to manipulate spectral linewidth and coherence.Read more
