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. 2022 Jan 12;2(3):215–236. doi: 10.1021/acsmaterialsau.1c00045

Table 2. Reported Encapsulations and Performance Parameters for PSCs Subjected to Long Term Damp Heat Tests with Standard Test Conditions of 85% RH, 85°C (η Denotes Power Conversion Efficiency, η0 Denotes Initial Efficiency)a.

encapsulation device type, architecture η (%) test time (h), T80 (h) final η (%) ref
EVA encapsulant, butyl rubber edge sealant PSC, inverted ∼10–12 1000, >1000 12% (increase from 10%) (13)
butyl rubber edge seal with desiccant, POE ENLIGHT encapsulant PSC, inverted ∼11–13 1000, >1000 95% of η0 (42)
glass frit encapsulation PSC, conventional mesoscopic with C 8.2 50, >50 100.9% of η0 (99)
no details given PSC, inverted 14.76 600, >600 93.8% of η0 (135)
double layer ALD alumina/hydrophobic coating PSC, inverted 19.9 500, 500 80% of η0 (62)
face sealing adhesive sheet PSC, conventional 21.16 1070, >1070 93.9% of η0 (131)
blanket PIB PSC, conventional ∼7–9 540, >540 98% of η0 (56)
blanket PIB PSC, conventional ∼17–19 1800, >1800 100% of η0 (12)
blanket PIB, UV curable epoxy edge seal PSC, inverted ∼20 816, 816 80% of η0 (41)
PIB edge sealing, cover glass PSC, conventional ∼20 1000, >1000 91.7% of η0 (43)
rGO film PSC, conventional 1000, >1000 85% of η0 (9)
face sealing OLED adhesive sheets PSC, conventional 19.7 530, >530 89.3% of η0 (134)
EVA, butyl rubber edge seal PSC, inverted ∼10–12 1008, >1008 ∼12%, increase from 10% (45)
PMMA/SB PSC, conventional ∼19 100 h, 100 h 80% of η0 (76)
a

Empty spaces in the table indicate that information was not provided, for example, T80 not given, or if the efficiency was given for different device configuration compared to long term stability test.