Different cylindrical geometries varying from 9 cm to 16 cm in height was considered in the numerical study.
Several pattern geometries varying in line width, line separation and line length were studied by X-ray diffraction.
Specimen cross-sections and lengths have been selected to cover a wide range of geometries, varying between non-dimensional slenderness of 0.5 and 2.0.
In order to extend the results to different designs, the model has then been applied to study a range of 16 different atrium geometries, varying the area-to-height-squared ratio from 0.4 to 3.8.
The equivalent circuit model was used in COMSOL simulations to investigate how the magnitude and phase of a single HeLa cell are affected by electrodes with varying geometries, varying operational voltages, and varying frequency.
Figure 2 μPL spectra of an individual QD recorded at above barrier excitation (hν exc = 1.540 eV), T = 4.2 K and an external magnetic field applied in a Faraday geometry and b Voigt geometry of varying strength as indicated in the figure.
It is also geometry at varying speeds, because when gaps appear there will be a sudden surge of velocity.
Fractal geometry predicts varying body size scaling relationships for mammal and bird home ranges.
These results are assessed through several benchmark tests, involving complex geometry and varying bathymetry.
Numerical results are presented for a double cantilever beam geometry with varying thickness for which bilinear and exponential cohesive laws are considered.
