Abstract
© 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Outstanding material properties of organic-inorganic hybrid perovskites have triggered a new insight into the next-generation solar cells. Beyond solar cells, a wide range of controllable properties of hybrid perovskites, particularly depending on crystal growth conditions, enables versatile high-performance optoelectronic devices such as light-emitting diodes, photodetectors, and lasers. This article highlights recent progress in the crystallization strategies of organic–inorganic hybrid perovskites for use as effective light harvesters or light emitters. Fundamental background on perovskite crystalline structures and relevant optoelectronic properties such as optical band-gap, electron-hole behavior, and energy band alignment are given. A detailed overview of the effective crystallization methods for perovskites, including thermal treatment, additives, solvent mediator, laser irradiation, nanostructure, and crystal dimensionalityis reported offering a comprehensive correlation among perovskite processing conditions, crystalline morphology, and relevant device performance. Finally, future research directions to overcome current practical bottlenecks and move towards reliable high performance perovskite optoelectronic applications are proposed.
Author supplied keywords
- 2D hybrids
- 2D materials
- 3D structures
- All-oxide solar cells
- CO2 reduction
- Earth-abundant oxides
- Electrochemical water splitting
- Escherichia coli
- Hybrid materials
- Integrated photocatalyst
- Kinetics
- Metal oxide nanostructures
- Nanostructures
- Photocatalysis
- Semiconductors
- Solar energy
- Solar energy conversion
- Solar-driven water splitting
- Ta3N5
- Taguchi design
- Thermodynamics
- Z-scheme
- anodes
- bandgap
- bilayer MoS 2
- black phosphorus
- black titania
- block copolymers
- cadmium sulfide
- carbon nanostructures
- carrier dynamics
- cathodes
- characterization
- chemocatalysis
- copper oxide
- crystallization
- density functional theory
- doping
- dye-sensitized solar cells
- elastomers
- electrocatalysis
- electrocatalysts
- electrode materials
- electronic structures
- energy conversion
- energy conversion and storage
- energy products
- energy storage
- graphene oxide
- high efficiency
- hybrid perovskites
- hybrid system
- hydrogen evolution
- hydrogen evolution reaction
- hydrogen evolution reactions
- hydrogen production
- interface engineering
- interfaces
- interlayer distance
- kinetics
- layered double hydroxides
- light manipulation
- light-emitting diodes
- lithium ion batteries
- metal hydroxides
- metal oxides
- metal/semiconductor heterostructures
- metal–organic frameworks
- metal–organic frameworks (MOFs)
- modification
- nanoantennas
- nanodiamonds
- nanomaterials
- nanoscale structures
- nanowires
- natural resources
- nitrogen functionality
- opening
- optoelectronics
- organic semiconductors
- oxygen evolution
- oxyhydroxides
- perovskite
- phosphorene
- photoanodes
- photocatalysis
- photocatalysts
- photocatalytic
- photoelectrochemical water splitting
- photoelectrodes
- photon managing
- photovoltaics
- plasma
- plasmonics
- polymers
- quadrupole gap plasmon
- self-assembly
- sensitized up-conversion
- service safety
- single-crystalline materials
- soft polymers
- solar cells
- solar energy
- solar light absorption
- supercapacitors
- synthesis
- titanium dioxide
- transition metal phosphides
- triplet excitons annihilation
- two-dimensional materials
- ultrathin nanomeshes
- water splitting
Cite
CITATION STYLE
Qi, J., Zhang, W., Cao, R., Hoang, S., Gao, P.-X., Sun, M., … Mokari, T. (2016). High efficiency up-converting single phase elastomers for photon managing applications. Advanced Energy Materials, 6(23), 1–10. Retrieved from http://doi.wiley.com/10.1002/aenm.201600683
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