When good statistical models of aquifer heterogeneity go bad: A comparison of flow, dispersion, and mass transfer in connected and multivariate Gaussian hydraulic conductivity fields
By B. Zinn, C. Harvey. 2003
418 citations recorded by the source corpus.
Subfields: Civil and Structural Engineering, Environmental Engineering, Mechanical Engineering
View Paper: https://www.semanticscholar.org/paper/406dd67913a6dace29cf2af1e66b1eb676dfa20e
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Civil and Structural Engineering
- Philippe Renard
- Denis Allard
- Hans-Jörg Vogel
- Yong Zhang
- Donald M. Reeves
- Julien Straubhaar
- Gregoire Mariethoz
- Insa Neuweiler
In Environmental Engineering
- Philippe Renard
- Denis Allard
- Gregoire Mariethoz
- Julien Straubhaar
- Liangping Li
- Haiyan Zhou
- Yong Zhang
- J. Jaime Gómez-Hernández
In Mechanical Engineering
- Insa Neuweiler
- Li Li
- J. Jaime Gómez-Hernández
- Denis Allard
- P. Heidari
- Olaf A. Cirpka
- Yong Zhang
- A. Alcolea
Citations in the corpus
- Connectivity metrics for subsurface flow and transport (2013, methodology): “the effective conductivity, Kg is the geometric mean of the local conductivity values, Ka t mass of tracer recovered at the outlet (modified from Zinn and Harvey [92]).”
- Inverse methods in hydrogeology: Evolution and recent trends (2014, background): “The713 other rarely applied constraint is connectivity, which is found to play a critical role in transport modeling.714 In a synthetic example, Zinn and Harvey (2003) demonstrated how the same conductivity values when715 rearranged in space to induce different connectivity patterns have very…”
- Assessment of the predictive capabilities of stochastic theories in a three‐dimensional laboratory test aquifer: Effective hydraulic conductivity and temporal moments of breakthrough curves (2005, background): “: LAB ASSESSMENT STOCHASTIC THEORIES W04002 flow [e.g., Gómez-Hernández and Wen, 1998; Zinn and Harvey, 2003].”
- Particle‐based transport model with Markovian velocity processes for tracer dispersion in highly heterogeneous porous media (2010, methodology): “In Appendix E, the outlined MVP‐based methodology is employed to model dispersion in ‘connected’ conductivity fields (as described by Zinn and Harvey [2003]) with sY 2 = 2.”
- The Direct Sampling method to perform multiple‐point geostatistical simulations (2010, methodology): “Therefore, any statistical inference based only on the analysis of point data (even if it uses complex statistics) will be blind to that characteristic of the underlying field [Sánchez‐Vila et al., 1996; Zinn and Harvey, 2003].”
- Blocking Moving Window algorithm: Conditioning multiple‐point simulations to hydrogeological data (2010, background): “Therefore, they fail to reproduce connectivity features of aquifer properties because the spatial continuity of their extreme values is minimum [Journel and Deutsch, 1993; Zinn and Harvey, 2003].”
- Upscaling for unsaturated flow for non‐Gaussian heterogeneous porous media (2007, background): “However, even for single-phase flow or solute transport, the influence of the non-multi-Gaussian character of fields has been discussed recently [Zinn and Harvey, 2003; Western et al., 2001; Gomez-Hernandez and Wen, 1997; Knudby and Carrera, 2005].”
- Homogenization of Richards equation in permeability fields with different connectivities (2005, methodology): “[63] In order to analyze the influence of connected permeability zones on the effective parameter functions, we compare three test fields generated by the method of Zinn and Harvey [2003]. Starting point is a standard autocorrelated field with a Gaussian covariance function.”
- Solute transport in low‐heterogeneity sandboxes: The role of correlation length and permeability variance (2014, background): “In contrast to observations in literature [Babadagli, 2006; Berg and Illman, 2011], the Keff values in all cases are higher than the geometric mean, indicating well-connected high permeability zones [Zinn and Harvey, 2003].”
- Time and space nonlocalities underlying fractional-derivative models: Distinction and literature review of field applications (2009, background): “, the sorption/desorption mechanism discussed above) [47,65] and transport in segregated regions of high and low permeability [13,15,149,155].”