Sentence examples for continuously tuning from inspiring English sources

Beyond that, we show that mixed SAMs provide an efficient tool for continuously tuning substrate work functions over a range that far exceeds that accessible by merely changing the coverage of homogeneous layers, with the net effect depending linearly on the mixing ratio in agreement with recent experimental findings.

By continuously tuning the zinc oxide conduction band position via magnesium doping, we probe this critical loss pathway in ZnO PbSe CQDSCs and optimize the energetic position of the tail of states, thereby increasing both the VOC (from 408 mV to 608 mV) and the device efficiency.

The filter allows the apodization and continuously tuning of the laser radiation intensity.

As emulational examples of application of the method, a continuously tuning of the number of transmission dips from one to four is achieved for the first time, which is realized by severally varying the Fermi level of nanoribbons via electrostatic gating.

One of the most important applications of the these types of lasers is the pulse THz radiation, which could be generated by the mode-locked Ti:sapphire laser owing to their high output power, excellent frequency stability, operational robustness, and large continuously tuning range in wavelengths [9].

An optical microwave filter architecture which can be continuously tuned is proposed and demonstrated.

The resonance frequencies of the metamaterial are demonstrated to be continuously tuned in the terahertz regime by increasing the temperature.

The resonance frequencies of the absorber are demonstrated to be continuously tuned in the terahertz regime by increasing the temperature.

In the case of the C98H46 model, we apply the external tensile strain to continuously tune the electronic properties of graphene-based materials.

Graphene has attractive electrical properties such as the ability to continuously tune the charge carriers from holes to electrons, high mobility, and high-carrier velocity [5 8].

Also, the ability of graphene-based materials to continuously tune charge carriers from holes to electrons makes them promising for biological applications, especially in lipid bilayer-based sensors.