Fig. 1. The basic optical characters of SPP modes on AgNWs

Fig. 2. The propagating properties of SPP modes on AgNWs

Fig. 3. Experimental demonstration on Wave-particle duality of single SPP on AgNWs^［61］

Fig. 4. Experimental demonstration on HOM interference between SPPs^［65］

Fig. 5. Modulating the lifetime of a single NV center with AgNWs^［84］

Fig. 6. Modulating the radiation direction of a single QD with AgNWs^［85］

Fig. 7. The self-aligned coupling between SPEs in WSe₂monolayer and AgNWs^［83］

Fig. 8. The polarization-dependent lifetime modulations of arbitrary SPEs on substrate with an AgNW probe^［88］

Fig. 9. The correlated emission between a single QD and a fluorescent nanobead on the same AgNW^［91］

Fig. 10. The coupling between several single QDs and an AgNW^［93］

Fig. 11. The remote nonlinear four-wave mixing between SPE and SPP on AgNWs^［94］

Fig. 12. Strong coupling between the TDBC exciton and AgNW nanocavity^［102］

Fig. 13. Single SPP on AgNWs excited by different kinds of SPEs^{［117，118］}

Fig. 14. Resolving single SPP generated by a pair of quantum dots on an AgNW^［119］

Fig. 15. The entangled SPPs generated on AgNWs^{［43，129］}

Fig. 16. The integrated functional devices and quantum logic gates realized with cascade of AgNWs^{［132，133］}

Fig. 17. The proposal of a single-photon transistor using the strong coupling between the SPEs and metal nanowires^［140］

Fig. 18. Manipulation of the qubits with high-resolution using an AgNW-bowtie hybrid structure^［141］

Fig. 19. Quantitative analysis of the LDOS with super-resolution via the manipulation of NV-centers' lifetimes by AgNWs^［157］

Fig. 20. Super-imaging realized by the interaction between a single QD and the SPP of AgNW^［158］