Coherent Control of four-Wave Mixing (四波混频相干控制)(英文版) [精装]

.　3.1 attosecond sum-frequency raman-enhanced olarization beatsusing twin hase-sensitive color locking noisy lights
　　3.1.1 basic theory of attosecond sum-frequency reb
　　3.1.2 homodyne detection of sum-frequency reb
　　3.1.3 heterodyne detection of difference-frequency reb
　3.2 cometition between raman and rayleigh-enhanced four-wavemixings in attosecond olarization beats
　　3.2.1 basic theory
　　3.2.2 stochastic correlation effects of rayleigh andraman-enhanced fwm
　　3.2.3 the raman and rayleigh-enhanced nonlinear suscetibility incw limit
　　3.2.4 homodyne detection of asb
　　3.2.5 heterodyne detection of asb
　　3.2.6 discussion and conclusion
　3.3 coexisting brillouin, rayleigh and raman-enhanced four-wavemixings
　　3.3.1 basic theory
　　3.3.2 homodyne detection of asb
　　3.3.3 heterodyne detection of asb
　　3.3.4 hase angle
　　3.3.5 discussion and conclusion
　references
4 multi-dressing four-wave mixing rocesses in confined andnon-confined atomic system
　4.1 temoral and satial interference between four-wave mixing andsix-wave mixing channels
　4.2 intermixing between four-wave mixing and six-wave mixing in afour-level atomic system
　　4.2.1 interlay between fwm and swm
　　4.2.2 discussion
　4.3 coexistence of four-wave, six-wave and eight-wave mixingrocesses in multi-dressed atomic systems
　　4.3.1 arallel and nested dressing schemes
　　4.3.2 interlay among coexisting fwm, swm and ewm rocesses
　4.4 controlled multi-wave mixing via interacting dark states in afive-level system
　　4.4.1 basic theory
　　4.4.2 numerical results
　　4.4.3 discussion
　4.5 olarization interference of multi-wave mixing in a confinedfive-level system
　　4.5.1 basic theory
　　4.5.2 mwm in long cells
　　4.5.3 mwm in ultra-thin and micrometer cells
　　4.5.4 discussion
　references
5 enhancement and suression in four-wave mixing rocesses
　5.1 interlay among multi-dressed four-wave mixing rocesses
　5.2 observation of enhancement and suression of four-wave mixingrocesses
　5.3 controlling enhancement and suression of four-wave mixingvia olarized light
　　5.3.1 theoretical model and analysis
　　5.3.2 exerimental results
　5.4 enhancing and suressing four-wave mixing inelectronm-genetically induce transarency window references
6 multi-wave mixing rocesses in multi-level atomic system
　6.1 modulating multi-wave mixing rocesses via olarizable darkstates
　6.2 olarization sectroscoy of dressed four-wave mixing in athree-level atomic system
　　6.2.1 various nonlinear suscetibilities for differentolarization schemes
　　6.2.2 nonlinear suscetibilities for zeeman-degenerate systeminteracting with olarized fields
　　6.2.3 third-order density-matrix elements in resence of dressingfields
　6.3 controlling fwm and swm in multi-zeeman atomic system withelectromagnetically induced transarency
　　6.3.1 basic theory
　　6.3.2 dual-dressed eit
　　6.3.3 four-wave mixing
　　6.3.4 six-wave mixing
　references
7 controlling satial shift and sltting of four-wave mixing
　7.1 basic theory
　7.2 electromagnetically-induced satial nonlinear disersion offour-wave mixing beams
　7.3 satial disersion induced by cross-hase modulation
　7.4 exerimental demonstration of otical switching and routingvia four-wave mixing satial shift
　　7.4.1 theoretical model and exerimental scheme
　　7.4.2 otical switching and routing via satial shift
　7.5 controlled satial beamslitter using four-wave mixingimages
　7.6 satial slitting and intensity suression of four-wavemixing in v-tye three-level atomic system
　references
8 satial modulation of four-wave mixing solitons
　8.1 basic theory
　　8.1.1 calculation of double dressed cross-kerr nonlinear index ofrefraction
　　8.1.2 calculation of analytical solution of one-dimensionalbright and dark satial solitons
　8.2 novel satial ga solitons of four-wave mixing
　8.3 diole-mode satial solitons of four-wave mixing
　8.4 modulated vortex solitons of four-wave mixing
　references
index