由运动自由面边界条件、波数守恒方程和能量守恒方程推导出水波破浪指数

Syawaluddin Hutahaean
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引用次数: 0

摘要

在本研究中,利用运动自由曲面边界条件建立了破碎机指标方程。将方程中拉普拉斯方程的解代入势速度方程,得到波幅函数方程。从波幅函数方程中提取出两个断路器指标,即断路器长度指标,即断路器高度与断路器长度的比值;破碎机深度指数是破碎机高度与破碎机深度的比值。下一个分断指数是分断深度与分断长度的比值,由波数守恒定律得到。对所得的三个破碎机指标方程进行一致性检验,结果表明三个方程具有一致性。一致性测试通过使用连通性方程来完成,其中断路器指数是其他两个断路器指数相乘的乘积。将破碎机长度指数代入能量守恒方程,得到破碎机高度指数,即破碎机高度与深水波浪高度之比。由此得到了断路器高度方程,该方程与断路器在开断点处的长度成函数关系。利用四种断路器指标的可用性,可以方便地计算出断路器的分断参数。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Breaker Indices in Water Wave Formulated from Kinematic Free Surface Boundary Condition, Conservation Equation of Wave Number and Equation of Energy Conservation
In this research, the breaker index equations are formulated using the kinematic free surface boundary condition. By substituting the potential velocity equation for the solution of Laplace's equation in this equation, it is obtained the wave amplitude function equation. From the wave amplitude function equation two breaker indices are extracted, they are the breaker length index which is the ratio between the breaker height and the breaker length; and the breaker depth index which is the ratio between the breaker height and the breaker depth. The next breaker index, which is a ratio between breaker depth and breaker length, is obtained from the wave number conservation law. Consistency testing of the three breaker index equations obtained shows that there is consistency in the three equations. Consistency testing is done by using the connectivity equation, where a breaker index is the product of the multiplication of the other two breaker indexes. The breaker height index, which is the ratio between the breaker height and the deep water wave height, is obtained by substituting the breaker length index in the energy conservation equation. Thus the breaker height equation is obtained which works a function of the breaker length at the breaking point. With the availability of the four breaker indexes, the breaking parameter can be calculated easily.
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