Looking for a Safe Bridge: Synthesis of P3HT-Bridge-TBO Block-Copolymers and Their Performance in Perovskite Solar Cells

References (32)

1. 1 Wang, X., Sun, Q., Gao, J., Wang, J., Xu, C., Ma, X., and Zhang, F. (2021). Recent Progress of Organic Photovoltaics with Efficiency over 17%. Energies, 14. [DOI]
2. 2 Palani, 2021, Conjugated polymer—A versatile platform for various Photophysical, Electrochemical and Biomedical applications: A Comprehensive review [DOI]
3. 3 Kranthiraja, 2019, Efficient and hysteresis-less perovskite and organic solar cells by employing donor-acceptor type π-conjugated polymer [DOI]
4. 4 Kranthiraja, 2017, Accomplishment of Multifunctional π-Conjugated Polymers by Regulating the Degree of Side-Chain Fluorination for Efficient Dopant-Free Ambient-Stable Perovskite Solar Cells and Organic Solar Cells [DOI]
5. 5 Smith, 2013, Synthesis and Crystallinity of Conjugated Block Copolymers Prepared by Click Chemistry [DOI]
6. 6 Orilall, 2011, Block copolymer based composition and morphology control in nanostructured hybrid materials for energy conversion and storage: Solar cells, batteries, and fuel cells [DOI]
7. 7 Xiao, L.-L., Zhou, X., Yue, K., and Guo, Z.-H. (2020). Synthesis and Self-Assembly of Conjugated Block Copolymers. Polymers, 13. [DOI]
8. 8 Lee, 2006, Enhancement of interconnectivity in the channels of pentacene thin-film transistors and its effect on field-effect mobility [DOI]
9. 9 Jung, 2019, Efficient, stable and scalable perovskite solar cells using poly(3-hexylthiophene) [DOI]
10. 10 Kleinschmidt, 2017, Poly(3-hexylthiophene) (P3HT): Fruit fly or outlier in organic solar cell research? [DOI]
11. 11 Matteocci, 2017, High Efficiency Perovskite Solar Cell Based on Poly (3-hexylthiophene) (P3HT): The Influence of P3HT Molecular Weight and Mesoscopic Scaffold Layer [DOI]
12. 12 Ku, 2012, A Modular Strategy for Fully Conjugated Donor-Acceptor Block Copolymers [DOI]
13. 13 Park, 2019, Facile one-pot polymerization of a fully conjugated donor–acceptor block copolymer and its application in efficient single component polymer solar cells [DOI]
14. 14 Kung, 2018, A review of inorganic hole transport materials for perovskite solar cells [DOI]
15. 15 Yang, 2017, Recent advances in perovskite solar cells: Efficiency, stability and lead-free perovskite [DOI]
16. 16 Wang, 2021, Moisture-Stable FAPbI(3) Perovskite Achieved by Atomic Structure Negotiation [DOI]
17. 17 Xu, 2020, Promoting Thermodynamic and Kinetic Stabilities of FA-based Perovskite by an in Situ Bilayer Structure [DOI]
18. 18 Nair, 2020, A study on optoelectronic performance of perovskite solar cell under different stress testing conditions [DOI]
19. 19 Ono, 2018, Photodecomposition and thermal decomposition in methylammonium halide lead perovskites and inferred design principles to increase photovoltaic device stability [DOI]
20. 20 Schloemer, 2020, The Molybdenum Oxide Interface Limits the High-Temperature Operational Stability of Unencapsulated Perovskite Solar Cells [DOI]
21. 21 Tepliakova, M.M., Mikheeva, A.N., Somov, P.A., Statnik, E.S., Korsunsky, A.M., and Stevenson, K.J. (2021). Combination of Metal Oxide and Polytriarylamine: A Design Principle to Improve the Stability of Perovskite Solar Cells. Energies, 14. [DOI]
22. 22 Tepliakova, 2020, Incorporation of vanadium (V) oxide in hybrid hole transport layer enables long-term operational stability of perovskite solar cells [DOI]
23. 23 Ma, 2021, Conjugated copolymers as doping- and annealing-free hole transport materials for highly stable and efficient p–i–n perovskite solar cells [DOI]
24. 24 Kim, 2016, Dopant-free polymeric hole transport materials for highly efficient and stable perovskite solar cells [DOI]
25. 25 Hummelen, 1995, Preparation and Characterization of Fulleroid and Methanofullerene Derivatives [DOI]
26. 26 Tepliakova, 2020, Suzuki polycondensation for the synthesis of polytriarylamines: A method to improve hole-transport material performance in perovskite solar cells [DOI]
27. 27 Mikheeva, A., Kuznetsov, I., Tepliakova, M., Elakshar, A., Gapanovich, M., Gladush, Y., Perepelitsina, E., Sideltsev, M., Akhkiamova, A., and Piryazev, A. (2022). Novel Push-Pull Benzodithiophene-Containing Polymers as Hole-Transport Materials for Efficient Perovskite Solar Cells. Molecules, 27. [DOI]
28. 28 Novota, 2017, Effect of alkyl side chains on properties and organic transistor performance of 2,6-bis(2,2′-bithiophen-5-yl)naphthalene [DOI]
29. 29 Iovu, 2005, Experimental Evidence for the Quasi-:Living: Nature of the Grignard Metathesis Method for the Synthesis of Regioregular Poly(3-alkylthiophenes) [DOI]
30. 30 King, 2009, Charge separation and recombination in self-organizing nanostructured donor–acceptor block copolymer films [DOI]
31. 31 Sanehira, 2016, The Influence of Electrode Interfaces on the Stability of Perovskite Solar Cells: Reduced Degradation using MoOx/Al for Hole Collection [DOI]
32. 32 Khenkin, 2020, Consensus statement for stability assessment and reporting for perovskite photovoltaics based on ISOS procedures [DOI]

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