First, the primitive cylinder was scaled along the X- and Y-axis by the radius of the true pipeline, and then scaled along the Z-axis by the distance between two successive vertices.
The EDAC scheme was successfully tested with both a finite-difference MacCormack's method for the two-dimensional lid driven cavity and periodic double shear layer problem and a finite-element method for flow over a square cylinder, with scaling studies on the latter to large numbers of processors.
Third, the primitive cylinder geometry was scaled, rotated, and translated to the correct size, attitude, and position.
Firstly, this VIV model is compared against the published experimental results of a small-scale cylinder with constant and time-varying tensions.
This work focuses on the modeling and simulation of the reactive process to better understand the design of a group of cylinders for large scale contaminated sites.
Secondly, the scaled cylinder is rotated along the axis formed by the cross product between vector <0, 0, 1> and the pipeline vector by the angle of the dot product between vector <0, 0, 1> and the pipeline vector.
In addition, the scaled cylinder was rotated along the axis formed by the cross product between vector <0, 0, 1> and the pipeline vector by the angle of the dot product between vector <0, 0, 1> and the pipeline vector.
The single-scale cylinder pairs are horizontally orientated and investigated in both horizontal and vertical alignment to determine if optimal configurations exist which maximize heat dissipation at the local cylinder and global array levels.
Fluctuating wind pressures measured from a 1 250 scaled cylinder model were investigated by the proper orthogonal decomposition (POD) method and used to generalize wind loads for analysis.
To evaluate the efficiency of grout injection this work used 11 different porous media, in the shape of small scale cylinders.
