Open Access
Review
Table 1
Summary of perovskite@MOF composites and applications
Perovskite@MOF composites | Synthesis strategy | MOFs | Pore size (nm) | Perovskite | Perovskite size (nm) | Year of publication |
Functions of MOFs | Application | Ref. | |
1 | CsPbBr3@Eu-BTC | Bottle-around-ship | Eu-BTC | − | CsPbBr3 | − | 2020 | Encapsulated CsPbBr3 | Sensor | [107] |
2 | CsPbBr3QDs/UiO-66(NH2) | Physical mixing | UiO-66(NH2) | − | CsPbBr3 | 10 | 2019 | Provide active sites | CO2 reduction | [108] |
3 | CsPbBr3/BIF-122-Co | Sequential deposition | BIF-122-Co | − | CsPbBr3 | − | 2022 | Provide active sites | CO2 reduction | [109] |
4 | CBI@U6N | Physical mixing | NH2-UiO-66 | − | Cs3Bi2I9 | 2.44 | 2021 | Encapsulation perovskite | HER | [110] |
5 | CPPB QDs/Ni-MOF | Sequential deposition | Ni-MOF | − | CsPbBr3 | 12 | 2022 | Encapsulation perovskite | HER | [94] |
6 | Co-MOF/LaCoO3−δ | Bottle-around-ship | MOF-74 | − | LaCoO3−δ | − | 2020 | Provide active sites | OER | [72] |
7 | CsPbBr3@PCN-333(Fe) | Sequential deposition | PCN-333(Fe) | 4.2–5.5 | CsPbBr3 | 4–5 | 2021 | Improve stability | OER | [80] |
8 | CsPbX3/MOF-5 | Physical mixing | MOF-5 | 1.85 | CsPbBr3 | 10 | 2019 | Improve stability | LED | [83] |
9 | EAPbBr3@MOG | In situ deposition | MOG | 5–10 | EAPbBr3 | 3–11 | 2019 | Improve stability | LED | [75] |
10 | CsPbX3@MOF | Bottle-around-ship | HP-UiO-66 | 2–7 | CsPbX3 | <5 | 2021 | Improve stability | LED | [93] |
11 | CsPbX3/ZIF-8 | Sequential deposition | ZIF-8 | 5.7 | CsPbX3 | 5–10 | 2021 | Improve stability | LED | [111] |
12 | ZJU-28![]() |
Sequential deposition | ZJU-28 | − | CsPbX3 | 8.33–12.2 | 2022 | Improve stability | LED | [81] |
13 | Cs-PeMOF | Direct conversion | PeMOF | − | CsPbX3 | 10–20 | 2022 | Improve stability | LED | [86] |
14 | CsPbX3@ZIF-8 | Sequential deposition | ZIF-8 | 25 | CsPbX3 | 10 | 2022 | Encapsulated CsPbBr3 | LED | [112] |
15 | MAPbBr3 NC@Pb-MOF | Bottle-around-ship | Pb-MOF | 10–20 | MAPbBr3 | 1.4–2 | 2017 | Encapsulation perovskite | Information security and anti-counterfeiting | [113] |
16 | CsPbX3@ZJU-28 | Sequential deposition | ZJU-28 | − | CsPbX3 | − | 2020 | Improve stability | Anti-counterfeiting, sensor, and LED | [114] |
17 | (P)-(+)/(M)-(−)-EuMOF![]() |
In situ deposition | (P)-(+)/(M)-(−)-EuMOF | − | MAPbX3 | 6.5 | 2022 | Improve stability | Information security and anti-counterfeiting | [115] |
18 | CsPbX3@MIL-101 | Sequential deposition | MIL-101(Cr) | 3 | CsPbX3 | 1.14 | 2019 | Encapsulation perovskite | Others | [116] |
19 | APbX3@Cr-MIL-101 | Sequential deposition | Cr-MIL-101 | 2.9 3.4 |
APbX3 | 3 | 2021 | Encapsulation perovskite | Others | [117] |
20 | MAPbBr3@UiO-66 | Sequential deposition | UiO-66 | 0.69 | MAPbBr3 | 3.3–6.4 | 2020 | Encapsulation perovskite | Others | [79] |
21 | CdSe/CdS-PVP@ZIF-8 | Bottle-around-ship | ZIF-8 | 1.16 | CdSe/CdS | 3.2 | 2022 | Encapsulation perovskite | Others | [71] |
Current usage metrics show cumulative count of Article Views (full-text article views including HTML views, PDF and ePub downloads, according to the available data) and Abstracts Views on Vision4Press platform.
Data correspond to usage on the plateform after 2015. The current usage metrics is available 48-96 hours after online publication and is updated daily on week days.
Initial download of the metrics may take a while.