Quenzel H, Kaestner M
Appl Opt. 1980 Apr 15;19(8):1338-44. doi: 10.1364/AO.19.001338.
The radiative transfer equation is solved by the method of successive orders of scattering for several different model atmospheres, taking into account the realistic variability of scattering and absorption. A windruffled ocean surface with whitecaps and with different phytoplankton content is also taken into account. The variation of the ocean-leaving radiance when traveling through the atmosphere is investigated. Calculations are performed at five wavelengths from 0.443 to 0.750 microm, according to the channels of the Coastal Zone Color Scanner (CZCS) on board the Nimbus 7 satellite. The radiance reaching the satellite amounts to only 5% of the radiation that penetrated the ocean, and consequently 95% of the radiation is scattered in the atmosphere or reflected at the ocean surface. Radiance variation at the satellite due to phytoplankton variations lies on the order of 1%, while the radiance variation due to the realistic spread of the optically relevant atmospheric and oceanic constituents is considerably higher. The variability of the atmospheric turbidity already causes changes up to 10% in the radiance at the satellite.
通过逐次散射阶数法求解辐射传输方程,针对几种不同的模型大气,同时考虑散射和吸收的实际变化情况。还考虑了带有白帽且浮游植物含量不同的风浪起伏的海洋表面。研究了海洋出射辐射在穿过大气时的变化。根据雨云7号卫星上的海岸带彩色扫描仪(CZCS)的通道,在0.443至0.750微米的五个波长处进行计算。到达卫星的辐射仅占穿透海洋辐射的5%,因此95%的辐射在大气中散射或在海洋表面反射。由于浮游植物变化导致的卫星处辐射变化约为1%,而由于光学相关的大气和海洋成分的实际分布导致的辐射变化则要高得多。大气浑浊度的变化已经导致卫星处的辐射变化高达10%。