To address this issue, we perform a theoretical prediction on the modulation of optical and electronic anisotropy on GaS ML.
Devices used in the current work showed a power peak of 4.22 mW/cm2 at the maximum power point and a smart modulation of optical transmittance of 50.16% (at 700 nm).
Recent developments in organic HTMs including the synthesis and application of novel structural architectures, their effect in modulation of optical and electrochemical properties, and ultimately, their influence on device performance parameters will be discussed.
In contrast to relatively low modulation of optical signal at 633- and 532-nm wavelengths, the transverse scan of the intensity profile at 405 nm contained sharp dips corresponding to the silver nanoparticle surface plasmon resonance absorption in the imprinted strips.
We have recently developed a new method for such optical control using a phase holographic modulation of optical wave-fronts, which minimizes power loss, enables rapid switching between excitation patterns, and allows a true 3D sculpting of the excitation volumes.
