Furthermore, this analysis has an advantage that 3D distributions of relative reflection strengths are objectively determined by the waveform stacking.
We used a stacking method to obtain three-dimensional distributions of relative reflection strengths of S waves and found a thin planar zone of high reflection strengths at depths of 25 30 km, which we call a S wave reflector.
To determine the relative uncertainty, reflections were fit using three line-fitting routines; a pseudo-Voigt function with cubic-spline correction and Kα2 fitting (JADE V.7.0), Pearson function, and a sum of Gaussian curves.
The output of the spectrometer was fed into a PC that displayed the wavelength along the X axis and the magnitude of the reflected light along the Y axis and hence a relative spectral reflection of the TL.
It is shown that based on Rindel's approximation one may determine some substantial information about sound reflection from the panels i.e. the value of upper limit frequency as well as the relative sound reflection level.
At the thickness of 2.2 mm, a relative low reflection loss (−17 GHz) corresponding to the frequency of 13.6 GHz was obtained.
The first was "If you consider the statements you made in this session, what do you think the relative proportions of reflections and questions were?" The response alternatives were: more questions than reflections, as many questions as reflections, or more reflections than questions.
Examples include binocular disparity, vergence, accommodation, motion parallax, texture gradients, occlusion, height in the visual field, relative angular size, reflections, and shading.
These participants confirmed the viability of emergent themes relative to personal reflections on their own LT-related experiences.
The relative intensities of reflections will be modulated by the exact structural architecture and side chain rotamers within the unit cell and this is difficult to exactly reproduce in this model.
