The phrase "absorber layer with a" is correct and usable in written English.
It can be used in contexts related to materials science, engineering, or technology, particularly when discussing components that absorb energy or light.
Example: "The design includes an absorber layer with a high efficiency for converting solar energy into electricity."
Alternatives: "absorbent layer featuring a" or "layer designed with a".
The analysis of the standard solar cell with an absorber layer with low Cu content revealed similar inhomogeneities in CIGS and CdS (not shown).
a HAADF-STEM and b BF-STEM image of the solar cell with an absorber layer with high Cu content in the ZnO/CdS/CIGS interface region.
In Fig. 6a, b, a mosaic of four phase images is shown that is retrieved from the holograms acquired on the solar cell with an absorber layer with high Cu content (GGI (sim 0.37 and CGI (sim 0.99).
Similar as in the profiles measured on the standard solar cell, the change due to the differently doped layers in ZnO, interface roughness in CdS and the pn-junction (resp. local changes in chemistry) close to the CdS/CIGS interface are found in the phase profiles on the solar cell with an absorber layer with high Cu content.
a, b Extracted phase images from off-axis holograms acquired on the solar cell that has an absorber layer with high Cu content.
Two CIGS thin-film solar cell devices were produced on flexible polyimide foils according to the recipe described by Chirilă et al. [36, 37], including a post-deposition treatment of the CIGS absorber layer with Na and K.
A copper-poor and zinc-rich CZTSe absorber layer with Cu/Sn, Zn/Sn, Cu/(Zn + Sn), and Zn/(Cu + Zn + Sn) with metallic element ratios of 1.86, 1.24, 0.83, and 0.3, respectively, was obtained in a selenization with a tin source at 530°C.
The optimal short-circuit current and open-circuit potential were obtained in a four-layer Au CdSe system because the thicker absorber layer with less porous structure might limit the electrolyte diffusion into the hybrid electrode and impose a barrier for electron tunneling and transferring.
The thicker absorber layer with less porous structure and larger CdS crystals might limit the electrolyte diffusion into the hybrid electrode and impose a barrier for electron tunneling and transferring.
To understand the role of each functional layer, the optimal 3000 nm CIGS absorber layer with 1.3 eV bandgap and 30 nm CdS buffer layer were firstly obtained via simulating the uniform band-gap structures.
