FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2896079025> ?p ?o ?g. }

• W2896079025 endingPage "286" @default.
• W2896079025 startingPage "277" @default.
• W2896079025 abstract "Up to date, the absorber low grain growth and the secondary compound formation remain the main factors causing the poor performance of kesterite solar cells based on spray pyrolysis derived Cu2ZnSnS4 (pure sulfide CZTS = PS-CZTS) compared with other deposition techniques. As the sodium (Na) inclusion is known to play a crucial role in affecting the grain growth, we evaluated in this report a thorough investigation in depth of the effect of Na doping content on crystallinity and phase segregation. The PS-CZTS was deposited by ultrasonic spray pyrolysis while the Na incorporation was carried out by soaking the pre-heated sprayed films in a solution of an environmentally-friendly NaCl salt. The change in the investigated parameters was followed throughout the absorber by scanning electron microscopy, Raman spectroscopy with different excitation wavelengths, grazing incidence X-ray diffraction (GIXRD) with various incidence angles, energy dispersive X-ray spectroscopy (EDS), secondary ion mass spectrometry (SIMS) and UV–Vis spectrometry. Increasing Na content significantly improves the crystallinity and the compactness simultaneously, resulting in smoothest surfaces with grains up to 2 µm in size. The Na was uniformly diffused leading to similar grain growth throughout the films. Whatever the Na content, the deposited materials are mostly consisting of ketserite-type PS-CZTS, whereas the use of different Raman excitations reveal the presence of Cu2S, ZnS and ZnO as secondary compounds in trace forms. The depth profile analysis with GIXRD showed that no further phase segregation has occurred while the EDS and SIMS results showed uniform distribution of PS-CZTS′ constituents along the surface and within the deposited films. By combining Raman, GIXRD and EDS analysis, the secondary compounds were found to be mostly gathered in the upper absorber layer. The absorption coefficient and the band gap range around 104 cm−1 and 1.55 eV respectively, the optimal values required for photovoltaic energy conversion. The Na doping developed in this study has a promising potential to yield high quality sprayed absorbers and opens up access to opportunities in enhancing of sprayed PS-CZTS thin film solar cell performances." @default.
• W2896079025 created "2018-10-26" @default.
• W2896079025 creator A5015956788 @default.
• W2896079025 creator A5030736951 @default.
• W2896079025 creator A5040171051 @default.
• W2896079025 creator A5049114728 @default.
• W2896079025 creator A5052205750 @default.
• W2896079025 creator A5052294340 @default.
• W2896079025 creator A5059952238 @default.
• W2896079025 creator A5067319877 @default.
• W2896079025 date "2018-12-01" @default.
• W2896079025 modified "2023-10-18" @default.
• W2896079025 title "An in-depth investigation on the grain growth and the formation of secondary phases of ultrasonic-sprayed Cu2ZnSnS4 based thin films assisted by Na crystallization catalyst" @default.
• W2896079025 cites W1758968098 @default.
• W2896079025 cites W1804220247 @default.
• W2896079025 cites W1955521207 @default.
• W2896079025 cites W1957401081 @default.
• W2896079025 cites W1963088271 @default.
• W2896079025 cites W1980515608 @default.
• W2896079025 cites W1981288152 @default.
• W2896079025 cites W1983285705 @default.
• W2896079025 cites W1985535981 @default.
• W2896079025 cites W1989013848 @default.
• W2896079025 cites W1994823919 @default.
• W2896079025 cites W2000250900 @default.
• W2896079025 cites W2006556908 @default.
• W2896079025 cites W2009365885 @default.
• W2896079025 cites W2010675844 @default.
• W2896079025 cites W2011293472 @default.
• W2896079025 cites W2014238176 @default.
• W2896079025 cites W2016409419 @default.
• W2896079025 cites W2026710730 @default.
• W2896079025 cites W2028090931 @default.
• W2896079025 cites W2029637177 @default.
• W2896079025 cites W2040875144 @default.
• W2896079025 cites W2044429296 @default.
• W2896079025 cites W2044439172 @default.
• W2896079025 cites W2046212205 @default.
• W2896079025 cites W2047019332 @default.
• W2896079025 cites W2052730093 @default.
• W2896079025 cites W2059603615 @default.
• W2896079025 cites W2063127218 @default.
• W2896079025 cites W2083813773 @default.
• W2896079025 cites W2090298685 @default.
• W2896079025 cites W2102625456 @default.
• W2896079025 cites W2140066695 @default.
• W2896079025 cites W2156682428 @default.
• W2896079025 cites W2160014206 @default.
• W2896079025 cites W2194999840 @default.
• W2896079025 cites W2201301091 @default.
• W2896079025 cites W2202883310 @default.
• W2896079025 cites W2253204042 @default.
• W2896079025 cites W2313853041 @default.
• W2896079025 cites W2329168744 @default.
• W2896079025 cites W2340181385 @default.
• W2896079025 cites W2342371462 @default.
• W2896079025 cites W2345036870 @default.
• W2896079025 cites W2409316855 @default.
• W2896079025 cites W2471962332 @default.
• W2896079025 cites W2489048611 @default.
• W2896079025 cites W2510950906 @default.
• W2896079025 cites W2516250017 @default.
• W2896079025 cites W2520657673 @default.
• W2896079025 cites W2540795910 @default.
• W2896079025 cites W2542885142 @default.
• W2896079025 cites W2560694490 @default.
• W2896079025 cites W2613315470 @default.
• W2896079025 cites W2725776604 @default.
• W2896079025 cites W2733844203 @default.
• W2896079025 cites W2766556189 @default.
• W2896079025 cites W2773857860 @default.
• W2896079025 cites W2789625363 @default.
• W2896079025 cites W2792579621 @default.
• W2896079025 cites W2800639869 @default.
• W2896079025 cites W2801722495 @default.
• W2896079025 cites W4236626176 @default.
• W2896079025 doi "https://doi.org/10.1016/j.solener.2018.10.045" @default.
• W2896079025 hasPublicationYear "2018" @default.
• W2896079025 type Work @default.
• W2896079025 sameAs 2896079025 @default.
• W2896079025 citedByCount "8" @default.
• W2896079025 countsByYear W28960790252019 @default.
• W2896079025 countsByYear W28960790252020 @default.
• W2896079025 countsByYear W28960790252021 @default.
• W2896079025 countsByYear W28960790252022 @default.
• W2896079025 crossrefType "journal-article" @default.
• W2896079025 hasAuthorship W2896079025A5015956788 @default.
• W2896079025 hasAuthorship W2896079025A5030736951 @default.
• W2896079025 hasAuthorship W2896079025A5040171051 @default.
• W2896079025 hasAuthorship W2896079025A5049114728 @default.
• W2896079025 hasAuthorship W2896079025A5052205750 @default.
• W2896079025 hasAuthorship W2896079025A5052294340 @default.
• W2896079025 hasAuthorship W2896079025A5059952238 @default.
• W2896079025 hasAuthorship W2896079025A5067319877 @default.
• W2896079025 hasConcept C113196181 @default.
• W2896079025 hasConcept C120665830 @default.
• W2896079025 hasConcept C121332964 @default.
• W2896079025 hasConcept C127413603 @default.

• next