• Laser & Optoelectronics Progress
  • Vol. 60, Issue 13, 1316021 (2023)
Shuhan Chen, Xiaochun Liu*, Lina Wang, and Jue Gong**
Author Affiliations
  • School of Materials and Energy, University of Electronic Science and Technology of China, Chengdu 611731, Sichuan, China
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    DOI: 10.3788/LOP230819 Cite this Article Set citation alerts
    Shuhan Chen, Xiaochun Liu, Lina Wang, Jue Gong. Research Progress of Perovskite Materials in Hot Carrier Solar Cells[J]. Laser & Optoelectronics Progress, 2023, 60(13): 1316021 Copy Citation Text show less
    Schematic diagram of solar cell structures. (a) Schematic diagram of traditional solar cell energy level structure[35]; (b) schematic diagram of ideal hot-carrier solar cell device structure[36]
    Fig. 1. Schematic diagram of solar cell structures. (a) Schematic diagram of traditional solar cell energy level structure[35]; (b) schematic diagram of ideal hot-carrier solar cell device structure[36]
    3D perovskite type. (a) Transient absorption spectra of MAPbI3-xClx film under different excitation intensities[60]; (b) long-distance diffusion imaging of hot carriers in MAPbI3 thin film measured by time-space resolved spectroscopy[25]
    Fig. 2. 3D perovskite type. (a) Transient absorption spectra of MAPbI3-xClx film under different excitation intensities[60]; (b) long-distance diffusion imaging of hot carriers in MAPbI3 thin film measured by time-space resolved spectroscopy[25]
    Quantum well type. (a) Normalized transient absorption kinetic curves for symmetric and asymmetric MQW[63]; (b) hot carrier cooling lifetime of quantum wells with different layers[67]; (c) schematic diagram of the main loss paths of hot-carrier energy in MAPbI3 and RP perovskite[68]
    Fig. 3. Quantum well type. (a) Normalized transient absorption kinetic curves for symmetric and asymmetric MQW[63]; (b) hot carrier cooling lifetime of quantum wells with different layers[67]; (c) schematic diagram of the main loss paths of hot-carrier energy in MAPbI3 and RP perovskite[68]
    Nanocrystalline type. (a) Formation kinetics of the bleaching signal for perovskite nanocrystals with different cations[43]; (b) average cooling time for hot carriers τC1 and cooling carriers τC2 and the bandgap obtained by double exponential fitting to the cooling curves of MAPb1-xSnxI3 perovskite [71]
    Fig. 4. Nanocrystalline type. (a) Formation kinetics of the bleaching signal for perovskite nanocrystals with different cations[43]; (b) average cooling time for hot carriers τC1 and cooling carriers τC2 and the bandgap obtained by double exponential fitting to the cooling curves of MAPb1-xSnxI3 perovskite [71]
    Hot electron extraction[31]. (a) Energy level diagram of MAPbBr3 nanocrystals with Bphen and the competition between hot carrier cooling and hot carrier extraction; (b) comparison of normalized transient absorption spectra of MAPbBr3 nanocrystalline film with and without Bphen extraction layer; (c) temporal evolution of hot carrier temperature for MAPbBr3 nanocrystalline film with or without Bphen extraction layer
    Fig. 5. Hot electron extraction[31]. (a) Energy level diagram of MAPbBr3 nanocrystals with Bphen and the competition between hot carrier cooling and hot carrier extraction; (b) comparison of normalized transient absorption spectra of MAPbBr3 nanocrystalline film with and without Bphen extraction layer; (c) temporal evolution of hot carrier temperature for MAPbBr3 nanocrystalline film with or without Bphen extraction layer
    Hot hole extraction. (a) Normalized transient absorption spectra of CsPbI3 in the presence and absence of P3HT molecules at a time delay of 0.3 ps[56]; (b) kinetic curves at the bleaching peak of MAPbI3, TiO2-MAPbI3, and MAPbI3-spiro-OMeTAD [72]
    Fig. 6. Hot hole extraction. (a) Normalized transient absorption spectra of CsPbI3 in the presence and absence of P3HT molecules at a time delay of 0.3 ps[56]; (b) kinetic curves at the bleaching peak of MAPbI3, TiO2-MAPbI3, and MAPbI3-spiro-OMeTAD [72]
    Hot carrier extraction[73]. (a) Energy level arrangement diagram of CsPbBr3 and BQ, PTZ molecules; contribution of the phonon vibration mode of (b) CsPbBr3, (c) CsPbBr3-BQ, and (d) CsPbBr3-PTZ to the conductivity spectrum, the red points denote the real conductivity, and the blue point denote the conductivity after adding Lorentz oscillator to simulate phonon vibration, the red and blue lines indicate the corresponding fitting results
    Fig. 7. Hot carrier extraction[73]. (a) Energy level arrangement diagram of CsPbBr3 and BQ, PTZ molecules; contribution of the phonon vibration mode of (b) CsPbBr3, (c) CsPbBr3-BQ, and (d) CsPbBr3-PTZ to the conductivity spectrum, the red points denote the real conductivity, and the blue point denote the conductivity after adding Lorentz oscillator to simulate phonon vibration, the red and blue lines indicate the corresponding fitting results
    Structure of internal light-emitting hot-carrier solar cell and the dynamical progress of photo-generated carriers in this device [82]
    Fig. 8. Structure of internal light-emitting hot-carrier solar cell and the dynamical progress of photo-generated carriers in this device [82]
    MaterialExcess energy /eVTime constants /psCharacterization techniqueTemporal resolution /fsRef.
    CdSe nanorods solution1.10.8TRPL30053
    GaAs film1.72TA15029
    CdS microplate0.650.6TRPL17054
    InN film2.410TA30055
    MAPbI3 film1.560TA15029
    FAPbI3 film1.5530TA15030
    CsPbI3 film0.810TA15056
    MAPbBr3 film0.70.8TA15031
    MAPbBr3 nanocrystal0.732TA15031
    FAPbI3 nanocrystal1.4540TA100-12057
    Table 1. Comparison list of hot carrier lifetime in traditional semiconductor materials and perovskite materials
    YearDonor-acceptorStructureTime constants /psPump wavelength /nmRef.
    2015CsPbBr3-BQ/PTZNanocrystal65 ± 5/49 ± 640075
    2017MAPbBr3-BphenNanocrystal3240031
    2018CsPbI3-P3HTNanocrystal2040056
    2018CsPbBr3/CsPbI3-1-aminopyrineNanocrystal120/170470/53076
    2018CsPbI3-TiO2Nanocrystal21047077
    2019MAPbI3-SpiroPolycrystalline film137072
    2019CsPbBr3-anthraquinoneNanocrystal147078
    2021CsPbBr3-TpyPNanocrystal4.7637079
    2021CsPbBr3-AuNanocrystal2.43 ± 0.3980
    2021CsPbBr3-AuNanocrystal3081
    Table 2. Research progress on the extraction of hot carriers from some peroskite materials
    Shuhan Chen, Xiaochun Liu, Lina Wang, Jue Gong. Research Progress of Perovskite Materials in Hot Carrier Solar Cells[J]. Laser & Optoelectronics Progress, 2023, 60(13): 1316021
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