The same is also true in the case of reflected soliton, where the coefficients αR and bR are found to increase with σp. Figure 4 shows the variation of the shift and reflection coefficient (marked as RC) with the ion temperature.
Large variations of the chemical shift may push the specific metabolite signal outside the spectral region in which the signal is searched, consequently leading to a false quantification.
About two typical sequences of dipping events in water solution of nanoparticles are shown in Fig. 3. Figure 3 Variations of the resonance frequency shift as a conical tip covered with carbon dips in a solution of gold NP-CALNN-Si-peptide (see text).
The sensitivity of the sensor is defined as the ratio of the variation of the frequency shift to the variation of the attached mass.
The intriguing behavior is accompanied by a series of complex variations including the shifts of electrode potential limits and the shift of potential of zero voltage.
Also near-by probes in X have small variations in the value of the shift k − k′.
It is possible to determine the order in which each phosphate group is protonated, using the variation of the chemical shifts while the L10– species is successively protonated (Δ δ p, Table 2).
The calculated chemical shifts for Na+–Ins(1,3,4,5,6) P 5 species are listed in Table 2. Apart from Δ δ p, the variation of the chemical shifts for the respective ligand species owing only to the metal complexation, Δ δ c, is also listed.
Static variations of the MET current may shift the system to a different dynamical regime, e.g., with different burst patterns, leading to drastic changes in the averaged response.
Significant variations of peak shift, broadening and asymmetry of the diffraction peaks were observed in the plastic region with the measurement.
