Datasets for MRMT
Data files
Feb 28, 2019 version files 38.70 MB
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AFP.eas
1.51 MB
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BTCs_Kern-10.dat
1.86 MB
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BTCs_Kern-11.dat
1.86 MB
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BTCs_Kern-12.dat
1.85 MB
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BTCs_Kern-13.dat
1.86 MB
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BTCs_Kern-14.dat
1.86 MB
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BTCs_Kern-15.dat
1.86 MB
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BTCs_Kern-16.dat
1.86 MB
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BTCs_Kern-17.dat
1.86 MB
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BTCs_Kern-18.dat
1.86 MB
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BTCs_Kern-19.dat
1.86 MB
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BTCs_Kern-2.dat
1.85 MB
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BTCs_Kern-20.dat
1.86 MB
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BTCs_Kern-3.dat
1.86 MB
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BTCs_Kern-4.dat
1.86 MB
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BTCs_Kern-5.dat
1.86 MB
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BTCs_Kern-6.dat
1.86 MB
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BTCs_Kern-7.dat
1.86 MB
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BTCs_Kern-8.dat
1.86 MB
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BTCs_Kern-9.dat
1.86 MB
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BTCs_Kern.dat
1.85 MB
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rw3d.inp
29.64 KB
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rw3d.nam
1.30 KB
Abstract
Purpose of this study is to evaluate the capacity of a previously-developed upscaling approach to adequately describe main solute transport processes including the capture of late-time tails under changing boundary conditions. Potential factors that impact the performance of upscaling methods, including temporal variations in mass transfer rates and mass distributions were investigated. Advective-dispersive contaminant transport in a 3D heterogeneous domain was simulated and used as a reference solution. Equivalent transport under homogeneous flow conditions were then evaluated applying the Multi-Rate Mass Transfer (MRMT) model. The random walk particle tracking method was used to solve the solute transport for heterogeneous and homogeneous-MRMT scenarios under steady state and transient conditions.