Application of the theoretical knowledge into designing or discovering drugs or small molecule inhibitors targeting cell based structures may open up new avenues in biomedical sciences.
This motivates further efforts towards the development of the biocompatible PV cell based on SiCaSiO3 structure for possible application in bioelectronics.
Cell motility requires two main types of actin based structures in the cell membrane, lamellipodia and filopodia.
The scheme of the possible design of solar cell based on the particulate structure of active layer is proposed.
Results show that the cell based on the composite structure yields the best performance during high-concentration operation.
In this work, we proposed a hybrid solar cell based on Si NW array/perovskite structure, which is schematically illustrated in Fig. 1a.
The as-fabricated-sensitized solar cell based on this composite structure has achieved an efficiency of 1.43% without any chemical doping or co-sensitizing, 210% higher than quantum dot-sensitized solar cell (QDSSC) under a similar condition.
Indeed, recently, a high PCE of 10.3 % has been reported for planar multicrystalline Si/PEDOT PSS solar cell based on the backPEDOT structure, using a Si absorber thickness of 5 μm passivated with Al2O3 [22].
In this work, we report on a highly stable polymer solar cell, based on an inverted structure with the active layer sandwiched between a pair of metal-oxide buffer layers and an inherently air-stable conjugated polymer, a-PTPTBT.
In this paper, we present our efforts on studying light trapping in thin-film silicon solar cells using photonic crystal (PC) based structures.
These long microtubule based structures seen in cells at these later time points following depletion of TbKIN13-1 almostmost certainly spindle-derived, since 3D deconvolution microscopy shows them to be separate from the subpellicular microtubules under the cell surface, and instead associated with nuclear DNA at least some point along their length (Figure S3).
