The phrase "altering the electronic" is correct and usable in written English.
It can be used in contexts where modifications or changes are being made to electronic devices, systems, or data.
Example: "The technician is altering the electronic components to improve the device's performance."
Alternatives: "modifying the electronic" or "changing the electronic".
Thus, as we approach the lower limit of lattice thermal conductivity, it is imperative to find a way to change the shape of the transport distribution function [29, 30] either by altering the electronic structures [38] or by introducing energy-dependent electron scattering mechanisms.
Again, such a large molar extinction coefficient (here, ε = 6.9 × 104 M−1 cm−1) is observed when PVP gets adsorbed on the surface of the NP and helps in altering the electronic properties of Au NPs by accumulating n-electrons of C=O moiety of PVP molecules on the Au surface in the Au-PVP nanocomposite[13, 22, 40].
The NBO analysis has revealed that topological pair defects variation could be an important role for altering the electronic characteristics on these intramolecular junctions.
The presented results offer a straightforward way for altering the electronic structure of the surface of oxides which may be beneficial for different, especially for photocatalytic applications of the modified oxides.
In order to check whether altering the electronic conjugation between these two units causes reduction in the extent of sensitization, we have synthesized a pyridinyloxy-fluorescein dye PyFlEt and attached it to two designed ruthenium nitrosyls through the pyridine-N donor of the pyridinyloxy-end.
To assess this effect, a cyclopropyl group was included (O3G∇), which was shown to fit in the binding pocket to make these additional interactions without altering the electronic properties.
The lone pairs of electrons of nitrogen atoms would alter the electronic properties of carbon, facilitating electron donation to Li ions.
Thus, both the In–O bond length and the In–O coordination decrease upon amorphization; the obtained deviations in the first shell, however, cannot alter the electronic band structure (e.g., electron effective mass) sufficiently enough to explain the observed 3-fold change in the electron mobility, Figure 5.
In the field of organic electronics, growth in various SIPs is frequently observed and can alter the electronic properties of the functional film, making polymorphism a decisive factor for the charge transport in a device.
Scientists have also found they can further alter the electronic behavior of nanotubes by stuffing other molecules inside.
