The diffusion-limited behavior at low frequencies is described by Warburg impedance.
The impedance diagrams exhibit a loop from high frequencies to medium frequencies (1 MHz–100 Hz) and a capacitive behavior at low frequencies (100 1 Hz).
The electrochemical impedance spectroscopy carried out over the frequency range (1 mHz–100 kHz) exhibits a dominant pseudo-capacitive behavior at low frequencies.
A "solid-like" behavior at low frequencies of linear viscoelastic oscillations was observed for SAN melts filled with 2.5 wt% MWCNT.
The analysis of rheological data reveals a Maxwell fluid behavior for the weakly segregated block copolymers, whereas for the strongly segregated block copolymers a pronounced elastic behavior at low frequencies of small amplitude shear oscillations was observed.
However, even in the study of Kossuth et al. [ 4], terminal behavior at low frequencies is not addressed.
The C analysis showed a strong non-linear behavior at low frequencies (left column of matrices), as FC values strongly decreased at 1 dpi and after this point the FC values started to increase up to 21 dpi.
For potential values in the double layer region, the impedance behavior observed at low frequency was attributed to the double layer capacitance of the oxide/electrolyte interface, while at high frequency it was attributed to a mass transport limited process occurring in difficult-to-access oxide regions.
Consistent with this expectation, NAV behavior occurs at low frequency in Peruvian (this study) and Galápagos (personal observation) blue-footed booby populations, and is unreported from central American colonies.
This is against with some memristor emulator circuit available in the literature which present a good behavior at low-frequency and however, the zero crossing of the pinched hysteresis loop is deviated when the operating frequency increases.
Previous work has also demonstrated that mechanically percolated nanocomposites exhibit logarithmically increasing storage modulus with time at low frequency, behavior attributed to the continuous development of a mesoscale organoclay network akin to that observed for colloidal gels.
