SEDIMENT TRANSPORT CAPACITY OF TIDAL CURRENTS AND WAVES

被引:0
作者
DOU, GR
DONG, FW
DOU, XB
机构
来源
CHINESE SCIENCE BULLETIN | 1995年 / 40卷 / 13期
关键词
TIDAL CURRENT; WAVE; SEDIMENT; TRANSPORT CAPACITY;
D O I
暂无
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
A lot of estuaries and coastal regions in China are covered with silts and muds, which are easily suspended and transported under the joint action of tidal currents and wind waves. Therefore, the study on the sediment transport capacity of both tidal currents and wind waves is of theoretical and practical significance. However, because of the extreme complexity of the problem, the studies in the past were limited to the empirical analyses, and the theoretical exposition was not given yet. In establishing most empirical formulas, the orbital velocity of waves was added to the velocity of the tidal currents in order to express the complex dynamic factors. As the two velocities belong to different categories, their superposition does not have theoretical basis. The empirical formulas proposed by different investigators can only be applied to a limit range in which the data were measured, and the common law of sediment transport capacity cannot be revealed by these formulas. According to the energy approach adopted by Dou Guoren([1]) in the study on the sediment transport capacity of rivers and based on the principle of superposition of energy, the wave energy dissipated in suspending sediments is added to that of tidal currents, and a law of sediment transport capacity under the action of both tidal currents and wind waves is deduced theoretically. Verification shows that the sediment transport capacity law obtained in this note is of universality and can be applied to various estuaries and coastal regions.
引用
收藏
页码:1096 / 1101
页数:6
相关论文
共 50 条
[21]   Effects of Tidal Currents on Nonlinear Internal Solitary Waves in the South China Sea [J].
FAN Zhisong ;
SHI Xingang ;
Antony K. Liu ;
LIU Hailong ;
LI Peiliang .
JournalofOceanUniversityofChina, 2013, 12 (01) :13-22
[22]   Evaluating sediment transport capacity relationships for use in ephemeral gully erosion models [J].
Langendoen, Eddy J. ;
Wells, Robert R. ;
Ursic, Mick E. ;
Vieira, Dalmo A. N. ;
Dabney, Seth M. .
SEDIMENT DYNAMICS FROM THE SUMMIT TO THE SEA, 2014, 367 :128-133
[23]   Numerical Simulation of the Tidal Flow and Suspended Sediment Transport in the Qiantang Estuary [J].
Guo, Yakun ;
Wu, Xiuguang ;
Pan, Cunhong ;
Zhang, Jisheng .
JOURNAL OF WATERWAY PORT COASTAL AND OCEAN ENGINEERING, 2012, 138 (03) :192-202
[24]   Mechanism of tidal driven vertical suspended sediment transport in Dumai estuary [J].
Mubarak, Mubarak ;
Sulaiman, Albert ;
Darmawan, Arief ;
Riyadi, Agung ;
Widodo, Joko .
REGIONAL STUDIES IN MARINE SCIENCE, 2025, 81
[25]   Effects of particle migration on the features of their transport by tidal currents in a region of freshwater influence [J].
K. A. Korotenko ;
A. V. Sentchev .
Oceanology, 2008, 48 :622-633
[26]   A combined numerical model of three-dimensional tidal motion and sediment transport in tidal current and its application [J].
Dong Wenjun ;
Bai Yuchuan ;
Li Shisen (1. Department of Mathematics .
ActaOceanologicaSinica, 2000, (01) :145-154
[27]   Field observations of turbulence, sediment suspension, and transport under breaking tidal bores [J].
Tu, Junbiao ;
Fan, Daidu ;
Voulgaris, George .
MARINE GEOLOGY, 2021, 437
[29]   Numerical modeling of cohesive sediment transport in a tidal bay with current velocity assimilation [J].
Zhang, Peng ;
Wai, Onyx W. H. ;
Lu, Jianzhong ;
Chen, Xiaoling .
JOURNAL OF OCEANOGRAPHY, 2014, 70 (06) :505-519
[30]   Relative importance of tides and waves for sediment transport on the intertidal mudflats [J].
Nakamichi, M ;
Tsuchida, M ;
Nishi, T ;
Hokamura, T ;
Yamada, F .
PROCEEDINGS OF THE FIFTEENTH (2005) INTERNATIONAL OFFSHORE AND POLAR ENGINEERING CONFERENCE, VOL 3, 2005, :732-738