Publication | Closed Access
Highly Flexible and Efficient All‐Polymer Solar Cells with High‐Viscosity Processing Polymer Additive toward Potential of Stretchable Devices
97
Citations
57
References
2018
Year
Intrinsic Mechanical EnduranceEngineeringOrganic Solar CellResponsive PolymersMechanical EngineeringNanostructured PolymerPhotovoltaic DevicesPolymer NanocompositesPhotovoltaicsHighly FlexiblePolymersPolymer TechnologySolar Cell StructuresPolymer ProcessingNanocrystallite SizePolymer CompositesHybrid MaterialsPolymer ChemistryMaterials SciencePolymer EngineeringIntercalation BehaviorFlexible ElectronicsPolymer ScienceStretchable DevicesSolar CellsSolar Cell Materials
Abstract Considering the potential applications of all‐polymer solar cells (all‐PSCs) as wearable power generators, there is an urgent need to develop photoactive layers that possess intrinsic mechanical endurance, while maintaining a high power‐conversion efficiency (PCE).Herein a strategy is demonstrated to simultaneously control the intercalation behavior and nanocrystallite size in the polymer–polymer blend by using a newly developed, high‐viscosity polymeric additive, poly(dimethylsiloxane‐ co ‐methyl phenethylsiloxane) (PDPS), into the TQ‐F:N2200 all‐PSC matrix. A mechanically robust 10wt% PDPS blend film with a great toughness was obtained. Our results provide a feasible route for producing high‐performance ductile all‐PSCs, which can potentially be used to realize stretchable all‐PSCs as a linchpin of next‐generation electronics.
| Year | Citations | |
|---|---|---|
Page 1
Page 1