FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4307777132> ?p ?o ?g. }

• W4307777132 abstract "The typical thickness of the photoactive layer in organic solar cells (OSCs) is around 100 nm, which limits the absorption efficiency of the incident light and the power conversion efficiency (PCE) of OSCs. Therefore, light-trapping schemes to reduce the optical losses in the thin photoactive layers are critically important for efficient OSCs. Herein, light-trapping and electron-collection dual-functional small organic molecules, N,N,N',N'-tetraphenyloxalamide (TPEA) and N,N,N',N'-tetraphenylmalonamide (TPMA), are designed and synthesized by a one-step acylation reaction. Driven by strong intermolecular force, TPEA and TPMA tend to self-aggregate into hemispherical light-trapping nanodots on the photoactive layer, resulting in enhanced light harvesting. Meanwhile, TPEA and TPMA demonstrate high electron mobility and excellent electron-collection ability. Compared with the device without cathode buffer layer (CBL, PCE = 14.09%), PM6:BTP-eC9 based OSCs with TPEA and TPMA light-trapping CBLs demonstrate greatly enhanced PCE of 16.21% and 17.85%, respectively. Furthermore, a record PCE of 19.02% can be achieved for PM6:BTP-eC9:PC71 BM based ternary OSC with TPMA light-trapping CBL. Moreover, TPMA exhibits a low synthesis cost of only 0.61 $ g-1 with high yield. These findings could open a window for the rational design of multifunctional CBLs for efficient and stable OSCs." @default.
• W4307777132 created "2022-11-05" @default.
• W4307777132 creator A5005195006 @default.
• W4307777132 creator A5007515097 @default.
• W4307777132 creator A5020413946 @default.
• W4307777132 creator A5033058757 @default.
• W4307777132 creator A5057330973 @default.
• W4307777132 creator A5058208045 @default.
• W4307777132 creator A5066523124 @default.
• W4307777132 creator A5084574395 @default.
• W4307777132 creator A5089815277 @default.
• W4307777132 date "2022-10-30" @default.
• W4307777132 modified "2023-10-17" @default.
• W4307777132 title "Self‐Aggregated Light‐Trapping Nanodots for Highly Efficient Organic Solar Cells" @default.
• W4307777132 cites W1564398524 @default.
• W4307777132 cites W1974539913 @default.
• W4307777132 cites W2009449409 @default.
• W4307777132 cites W2016932185 @default.
• W4307777132 cites W2022014300 @default.
• W4307777132 cites W2024977515 @default.
• W4307777132 cites W2025720720 @default.
• W4307777132 cites W2033348850 @default.
• W4307777132 cites W2039312564 @default.
• W4307777132 cites W2073991275 @default.
• W4307777132 cites W2088750456 @default.
• W4307777132 cites W2105068927 @default.
• W4307777132 cites W2112796640 @default.
• W4307777132 cites W2113685855 @default.
• W4307777132 cites W2117473879 @default.
• W4307777132 cites W2119489545 @default.
• W4307777132 cites W2143338675 @default.
• W4307777132 cites W2148304296 @default.
• W4307777132 cites W2154113062 @default.
• W4307777132 cites W2416098265 @default.
• W4307777132 cites W2486255115 @default.
• W4307777132 cites W2583285807 @default.
• W4307777132 cites W2605540394 @default.
• W4307777132 cites W2771211506 @default.
• W4307777132 cites W2787721822 @default.
• W4307777132 cites W2809086625 @default.
• W4307777132 cites W2885281230 @default.
• W4307777132 cites W2909990379 @default.
• W4307777132 cites W2914785694 @default.
• W4307777132 cites W2923148304 @default.
• W4307777132 cites W2983927431 @default.
• W4307777132 cites W2994622674 @default.
• W4307777132 cites W2999590263 @default.
• W4307777132 cites W3006066928 @default.
• W4307777132 cites W3013363765 @default.
• W4307777132 cites W3023721417 @default.
• W4307777132 cites W3027832813 @default.
• W4307777132 cites W3028938884 @default.
• W4307777132 cites W3033926776 @default.
• W4307777132 cites W3037390777 @default.
• W4307777132 cites W3054498216 @default.
• W4307777132 cites W3073950603 @default.
• W4307777132 cites W3103673828 @default.
• W4307777132 cites W3110921584 @default.
• W4307777132 cites W3115319312 @default.
• W4307777132 cites W3124939073 @default.
• W4307777132 cites W3132385881 @default.
• W4307777132 cites W3133306951 @default.
• W4307777132 cites W3161611462 @default.
• W4307777132 cites W3182693716 @default.
• W4307777132 cites W3189457795 @default.
• W4307777132 cites W3191171424 @default.
• W4307777132 cites W3197814413 @default.
• W4307777132 cites W3199537595 @default.
• W4307777132 cites W3200242599 @default.
• W4307777132 cites W3203231796 @default.
• W4307777132 cites W3207095334 @default.
• W4307777132 cites W4224216567 @default.
• W4307777132 cites W4225910597 @default.
• W4307777132 cites W4226070796 @default.
• W4307777132 cites W4241214195 @default.
• W4307777132 doi "https://doi.org/10.1002/smll.202205128" @default.
• W4307777132 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/36310144" @default.
• W4307777132 hasPublicationYear "2022" @default.
• W4307777132 type Work @default.
• W4307777132 citedByCount "4" @default.
• W4307777132 countsByYear W43077771322023 @default.
• W4307777132 crossrefType "journal-article" @default.
• W4307777132 hasAuthorship W4307777132A5005195006 @default.
• W4307777132 hasAuthorship W4307777132A5007515097 @default.
• W4307777132 hasAuthorship W4307777132A5020413946 @default.
• W4307777132 hasAuthorship W4307777132A5033058757 @default.
• W4307777132 hasAuthorship W4307777132A5057330973 @default.
• W4307777132 hasAuthorship W4307777132A5058208045 @default.
• W4307777132 hasAuthorship W4307777132A5066523124 @default.
• W4307777132 hasAuthorship W4307777132A5084574395 @default.
• W4307777132 hasAuthorship W4307777132A5089815277 @default.
• W4307777132 hasConcept C125287762 @default.
• W4307777132 hasConcept C159985019 @default.
• W4307777132 hasConcept C171250308 @default.
• W4307777132 hasConcept C185592680 @default.
• W4307777132 hasConcept C18903297 @default.
• W4307777132 hasConcept C192562407 @default.
• W4307777132 hasConcept C206991015 @default.
• W4307777132 hasConcept C2776026197 @default.
• W4307777132 hasConcept C2777924906 @default.

• next