Air-sea interactions under the existence of opposing swell

被引:17
|
作者
Mitsuyasu, H [1 ]
Yoshida, Y
机构
[1] Kyushu Univ, Fukuoka 812, Japan
[2] Japan Port Consultants, Fukuoka 8120014, Japan
关键词
air-sea interactions; swell; wind waves; interaction between wind waves and swell; sea surface roughness; local equilibrium of winds and wind waves;
D O I
10.1007/s10872-005-0027-1
中图分类号
P7 [海洋学];
学科分类号
0707 ;
摘要
Data of a comprehensive laboratory study on the coexistent system of wind waves and opposing swell (Mitsuyasu and Yoshida, 1989) have been reanalyzed to clarify the air-sea interaction phenomena under the coexistence of wind waves and swell. It is shown that the magnitude of the decay rate of swell due to an opposing wind is almost the same as that of the growth rate of swell caused by a following wind, as measured by Mitsuyasu and Honda (1982). The decay rate is much smaller than that obtained recently by Peirson et al. (2003), but the reason for the disagreement is not clear at present. The effect of an opposing swell on wind waves is very different from that of a following swell; wind waves are intensified by an opposing swell while they are attenuated by a following one. The phenomenon contradicts the model of Phillips and Banner (1974), but the reason for this is not clear at this time. The high-frequency spectrum of wind waves shows a small increase of the spectral density. Wind shear stress increases a little due to the effect of opposing swell. The intensification of wind waves by opposing swell and the small increase of the spectral density in a high-frequency region can be attributed to the increase of wind shear stress. Such organized phenomena lead to the conclusion that the hypothesis of local equilibrium for pure wind waves (Toba, 1972) can also be satisfied for wind waves that coexist with opposing swell. The recent finding of Hanson and Phillips (1999) can be explained by this mechanism.
引用
收藏
页码:141 / 154
页数:14
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