Our work presents an in-depth analysis of light absorption in thin films and provides design principles for various thin film devices, such as sensors, optical filters, optical modulators, and thermal emitters.
This system uses a time-correlated single-photon counting (TCSPC) method for measuring temporal response profiles of tissue against optical pulse inputs and enables quantitative analysis of light absorption and scattering in tissue as per the Photon Diffusion Theory [ 13].
We present finite-difference time-domain (FDTD) analysis results of light absorption enhancement factor dependence on the profile shape of nano-gratings etched into the surfaces of metal semiconductor metal photodetector (MSM-PD) structures.
We present a detailed characterization of the CPNs using Raman spectroscopy, light absorption, cyclic voltammetry and differential mobility analysis, showing their optimal features of band gap and size for use as electron acceptor materials.
Based on the above analysis, the strong light absorption (due to the narrow bandgap) and the long carrier lifetime in ZnO/CdSe NWs dominantly contributed to the high conversion efficiency.
It is easy to obtain the structural optimization of light absorption in different terahertz ranges in our numerical analysis.
Absorption spectral analysis suggests that the prominently light absorption in Ag nanowire/PVP and Ag nanowire/PVP/Au film arises from the localized surface plasmon resonance of Ag nanowire and Au nanofilm.
Enhanced light absorption of this Au Pt/SiO2/Si nanoarchitecture is deduced from Mie scattering analysis and Finite Difference Time Domain simulations in dependence on the Pt-shell thickness.
The analysis of single cells or subcellular particles by the detection of their light absorption, scattering and/or fluorescence properties as they pass through a laser beam in a directed fluid stream.
UV-vis DRS analysis displays that the SrTiO3/Bi5O7I nanocomposites have a good performance of light absorption.
We investigate the light absorption in an ultrathin crystalline silicon solar cell with composite grating structures using three dimensional rigorous coupled wave analysis.
