Sentence examples for d planar from inspiring English sources

The continuous lines represent the homogenized model and the dashed lines the model with the optimal coupling parameter (N_{textrm {p}}^{text {opt}}) (a) Shear flow (b) Elongational flow (c) Compressional flow (d) Planar flow.

The reactions in the growth system are: Fig. 7 Schematic diagram of growth process of a ZnO nanosheet branched structure, a formation of Zn nuclei, b P doping induces the growth of ZnO nanoribbons, c oxygen promotes the growth of nanoteeth, and d planar filling of ZnO nanosheets.

(a) A 12-nm Ag film annealed at 200°C for 10 min, (b) planar view of corresponding etching results to (a), (c) 14-nm-thick Ag film annealed at 250°C for 10 min, and (d) planar view of corresponding etching results to (c).

b Photograph of facies D. c Detailed photograph of the lower sandstone showing a typical vertical assemblage of facies B, C and D. d Planar fabric, which is ubiquitous in facies B. Massive sandstones such as these could have been deposited by grain flow, sandy debris flow or hyperpycnal flow (Bagnold 1956; Zavala 2006; Li et al. 2011a; Gao et al. 2012).

The dynamic configurations of the track were mapped against a stable set of spatial bins, which allowed us to dissociate two frames of reference: the effects produced on the CA1 place cells by changes in the track configuration can be described either in the reference frame associated with the room (the 2 D planar reference frame) or with the track itself (the 1 D linear reference frame).

The sound production is predicted by using a 2-D planar point vortex model combined with the Vortex Sound Theory.

Numerical studies on hydrogen/air stratified flames in 1-D planar coordinate are performed using a time-accurate and space-adaptive numerical solver A-SURF.

After preliminary tests on 1-D planar flames, the proposed strategy is applied to a 3-D simulation of a swirled turbulent stratified flame.

To study the compatibility of the LBM for the energy equation and the FVM for the radiative transfer equation, transient conduction and radiation heat transfer problems in 1-D planar and 2-D rectangular geometries were considered.

The flame diagnostics consist of one-dimensional (1-D) Planar Laser-Induced Fluorescence (PLIF) for measurements of NO and CH concentrations, 1-D NO-LIF thermometry, and 1-D Particle Tracking Velocimetry (PTV) for the determination of flame reactivity and burning rates.

The maximum error lies in the range of 6.3 to 10.7% for one-dimensional (1-D) counterflow PPFs, and between 6.1 to 8.0% for two-dimensional (2-D) planar and axisymmetric PPFs (for equivalence ratios in the range of 1.5 ≤ φr ≤ 2.0).