垂直入渗的模糊解析解

C. Tzimopoulos, G. Papaevangelou, Kyriakos Papadopoulos, C. Evangelides, G. Arampatzis
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引用次数: 4

摘要

在本文中,我们研究了模糊线性垂直入渗方程的解,该方程代表了水在多孔介质中被称为渗透带的部分的运动。由于该地区与水分含量有关的复杂现象,该地区对半干旱地区非常重要。这些现象涉及水汽带与大气、地下水与植被之间水分含量的交换、水分和蒸汽的转移以及水分的保持。描述该问题的方程是一个二阶偏微分抛物方程。非饱和区水流的计算需要了解初始条件和边界条件以及各种土体参数。但由于人为和机器的不精确性,这些参数会受到各种不确定性的影响。因此,在这里使用模糊集合理论来面对不精确或模糊。由于问题涉及模糊微分方程,本文将广义Hukuhara (gH)导数用于全导数,并将该理论推广到偏导数。结果为模糊含水率、模糊累计入渗和模糊入渗速率随时间的变化。这些结果使从事灌溉和排水工程的研究人员和工程师能够考虑到渗透的不确定性。
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Fuzzy Analytical Solution to Vertical Infiltration
In this article, we examine the solution of the fuzzy linear vertical infiltration equation, which represents the water movement in porous media in that part which is called the vadose zone. This zone is very important for semi-arid areas, due to complex phenomena related to the moisture content in it. These phenomena concern the interchange of moisture content between the vadose zone and the atmosphere, groundwater and vegetation, transfer of moisture and vapor and retention of moisture. The equation describing the problem is a partial differential parabolic equation of second order. The calculation of water flow in the unsaturated zone requires the knowledge of the initial and boundary conditions as well as the various soil parameters. But these parameters are subject to different kinds of uncertainty due to human and machine imprecision. For that reason, fuzzy set theory was used here for facing imprecision or vagueness. As the problem concerns fuzzy differential equations, the generalized Hukuhara (gH) derivative was used for total derivatives, as well as the extension of this theory for partial derivatives. The results are the fuzzy moisture content, the fuzzy cumulative infiltration and the fuzzy infiltration rate versus time. These results allow researchers and engineers involved in Irrigation and Drainage Engineering to take into account the uncertainties involved in infiltration.
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