Variation of the Sectional Drag Coefficient of a Group of Buildings with Packing Density

By J. Santiago, O. Coceal, A. Martilli, S. Belcher. 2008

86 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Computational Mechanics, Environmental Engineering

View Paper: https://www.semanticscholar.org/paper/478403f457009de4a63b9747f22670a1f0ca1abd

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Aerospace Engineering

1. Stefano Leonardi
2. A. Martilli
3. J. Santiago
4. M. Kanda
5. I. Castro
6. Xiang I. A. Yang
7. Charles Meneveau
8. J. Sadique

In Computational Mechanics

1. Stefano Leonardi
2. I. Castro
3. Xiang I. A. Yang
4. A. Martilli
5. J. Santiago
6. Charles Meneveau
7. J. Sadique
8. Rajat Mittal

In Environmental Engineering

1. Stefano Leonardi
2. A. Martilli
3. J. Santiago
4. I. Castro
5. Aya Hagishima
6. Sho Meno
7. Koji Nagayama
8. Jun Tanimoto

Citations in the corpus

• Aerodynamic Parameters of Regular Arrays of Rectangular Blocks with Various Geometries (2009, result): “Such a clear peak of Cd for cubical staggered arrays is consistent with both the results from LES by Kanda (2006) and results from the k–e model used by Santiago et al. (2008) despite their drag coefficients being defined using the wind within the urban canopy layer.”
• Channel flow over large cube roughness: a direct numerical simulation study (2010, methodology): “It is worth noting, however, that although the values of Cd(y) are seriously overpredicted by RANS methods (shown by Santiago et al. 2008, for λ= 0.25), the present data suggest that height-averaged values of Cd mod (y) are relatively close to those obtained by Santiago et al. using RANS.”
• Parametrization of Drag and Turbulence for Urban Neighbourhoods with Trees (2015, methodology): “Further details are available in Santiago et al. (2008) and Santiago and Martilli (2010).”
• Exponential roughness layer and analytical model for turbulent boundary layer flow over rectangular-prism roughness elements (2016, background): “The drag coefficient can depend on the vertical distance, the detailed distribution of the ground roughness, the details of the local flow, etc. (Santiago et al. 2008).”
• A Dynamic Urban Canopy Parameterization for Mesoscale Models Based on Computational Fluid Dynamics Reynolds-Averaged Navier–Stokes Microscale Simulations (2010, methodology): “Cd = Cd (z) ,( Macdonald 2000; Santiago et al. 2008 ).”
• A New Aerodynamic Parametrization for Real Urban Surfaces (2013, methodology): “This database will be useful for improving multilayer urban canopy modelling (e.g., Santiago et al. 2008) because real urban canopies are complex, and thus the resulting dispersive fluxes are larger and wind profiles are more difficult to model than for simple building arrays.”