We applied a logarithmic Gaussian filter with a mean of 1050 Hz and a standard deviation of 0.59 octaves (mean-sd: 698 Hz; mean+sd: 1581 Hz) for a smooth fade-out of the lowest and highest frequency complexes.
Rheological characterization in the linear viscoelasticity region showed significant increases in the low-frequency complex viscosity, storage and loss moduli, which stem from the polymer/filler and filler/filler interactions.
At microwave frequencies complex permittivity (dielectric constant and loss tangent) are the two mandatory parameters prior to any design.
Comparison of complex modulus mastercurves indicated that at lower reduced frequencies, complex modulus values were higher for polymer modified blends in relation to unmodified binder.
In both cases, an approximation of small damping is used to obtain simple expressions for damped natural frequencies, complex mode shapes, and transfer functions.
At low frequencies, complex viscosities become almost independent of the frequency as nanotubes loading being more than 1.5 wt%, suggesting an onset of solid-like behavior and hence a rheological percolation threshold at the loading level.
Both the high-frequency complex and pseudocomplex were high-frequency words; we surmise that adults struggled to decompose and produce the derived complex form.
The only word type that did not follow this trend was the high-frequency complex words versus pseudocomplex matched control words.
This study did not replicate that finding: the adults read the pseudocomplex words both more accurately and faster than the high-frequency complex words.
