Fig. 1. Schematic diagram of UWOC system with wavelength diversity

Fig. 2. Total attenuation coefficient of optical signals of different wavelengths in coastal ocean

Fig. 3. Outage probability performance of wavelength diversity UWOC system under different anisotropic factors. (a) No wavelength diversity; (b) Second-order wavelength diversity; (c) Third-order wavelength diversity, 不同各向异性因子下波长分集UWOC系统的中断概率性能变化。(a) 无波长分集；(b) 2阶波长分集；(c) 3阶波长分集，L=10 m

Fig. 4. Comparison of the average BER performance of the UWOC system without wavelength diversity using OC and EGC technology under different anisotropic factors, 使用OC与EGC技术的波长分集UWOC系统在不同各向异性因子下的平均BER性能比较，

Fig. 5. Outage probability performance of wavelength diversity UWOC system under different ocean turbulence parameters, (a) kinetic energy dissipation rate , (b) mean square temperature dissipation rate , (c) the ratio of temperature and salinity contribution to ocean turbulence , 波长分集UWOC系统在不同海洋湍流参数，(a)动能耗散率 ，(b)均方温度耗散率 ， (c)温度与盐度对海洋湍流贡献比值 下的中断概率性能变化，

Fig. 6. Average BER performance of wavelength diversity UWOC system under different ocean turbulence parameters, (a) kinetic energy dissipation rate , (b) mean square temperature dissipation rate , (c) the ratio of temperature and salinity contribution to ocean turbulence , 波长分集UWOC系统在不同海洋湍流参数，(a)动能耗散率 ，(b)均方温度耗散率 ，(c)温度与盐度对海洋湍流贡献比值 下的平均BER性能变化，

Fig. 7. Average BER performance of wavelength diversity UWOC system using OC technology under different transmission distances

Table 1. Simulation parameters

Table 2. Outage probability of wavelength diversity UWOC system under different anisotropy factors

Table 3. Average BER of wavelength diversity UWOC system using OC technology under different transmission distances