SPPs (Surface Plasma Polaritons) thin film heterojunction and perovskite laminated solar cell and preparation method of solar cell

A technology of perovskite cells and solar cells, which is applied in circuits, photovoltaic power generation, electrical components, etc., can solve the problems that the spectrum is not fully utilized and is limited to 300-800nm, so as to improve the photoelectric conversion efficiency and broaden the Effect of Spectral Absorption Range

Active Publication Date: 2017-01-04
HUAIHAI INST OF TECH
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0005] Using CH 3 NH 3 PB 3 The efficiency of solar cells with perovskite as photosensitive material has reached more than 20%, and the conversion efficiency can be further improved by using nanostructure

Method used

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  • SPPs (Surface Plasma Polaritons) thin film heterojunction and perovskite laminated solar cell and preparation method of solar cell
  • SPPs (Surface Plasma Polaritons) thin film heterojunction and perovskite laminated solar cell and preparation method of solar cell
  • SPPs (Surface Plasma Polaritons) thin film heterojunction and perovskite laminated solar cell and preparation method of solar cell

Examples

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Embodiment 1

[0034] combined with figure 1 As shown in the schematic structural diagram, this embodiment provides a solar cell with a SPPs thin film heterojunction and a perovskite laminate, and the solar cell is as follows from top to bottom: an aluminum electrode 1; an SPPs thin film heterojunction solar cell; ITO connection layer 9; triangular grating perovskite cell; metal grid line electrode 15. The SPPs thin film heterojunction solar cells are as follows from bottom to top: triangular silver nano grating 2, conformal Si 3 N 4 Isolation layer 3, conformal N + Type amorphous silicon layer 4, conformal intrinsic amorphous silicon layer 5, N-type monocrystalline silicon layer 6, intrinsic amorphous silicon layer 7 and P + type amorphous silicon layer 8 . The triangular grating perovskite cell is as follows from bottom to top: ZnO electron transport layer 10, CH with triangular grating structure 3 NH 3 PB 3 Perovskite layer 11, conformal structure Spiro-OMeTAD hole transport layer ...

Embodiment 2

[0045] combined with figure 1 As shown in the schematic structural diagram, this embodiment provides a solar cell with a SPPs thin film heterojunction and a perovskite laminate, and the solar cell is as follows from top to bottom: an aluminum electrode 1; an SPPs thin film heterojunction solar cell; ITO connection layer 9; triangular grating perovskite cell; metal grid line electrode 15. The SPPs thin film heterojunction solar cells are as follows from bottom to top: triangular silver nano grating 2, conformal Si 3 N 4 Isolation layer 3, conformal N + Type amorphous silicon layer 4, conformal intrinsic amorphous silicon layer 5, N-type monocrystalline silicon layer 6, intrinsic amorphous silicon layer 7 and P + type amorphous silicon layer 8 . The triangular grating perovskite cell is as follows from bottom to top: ZnO electron transport layer 10, CH with triangular grating structure 3 NH 3 PB 3 Perovskite layer 11, conformal structure Spiro-OMeTAD hole transport layer ...

Embodiment 3

[0056] combined with figure 1 As shown in the schematic structural diagram, this embodiment provides a solar cell with a SPPs thin film heterojunction and a perovskite laminate, and the solar cell is as follows from top to bottom: an aluminum electrode 1; an SPPs thin film heterojunction solar cell; ITO connection layer 9; triangular grating perovskite cell; metal grid line electrode 15. The SPPs thin film heterojunction solar cells are as follows from bottom to top: triangular silver nano grating 2, conformal Si 3 N 4 Isolation layer 3, conformal N + Type amorphous silicon layer 4, conformal intrinsic amorphous silicon layer 5, N-type monocrystalline silicon layer 6, intrinsic amorphous silicon layer 7 and P+ type amorphous silicon layer 8. The triangular grating perovskite cell is as follows from bottom to top: ZnO electron transport layer 10, CH with triangular grating structure 3 NH 3 PB 3 Perovskite layer 11, conformal structure Spiro-OMeTAD hole transport layer 12,...

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Abstract

The invention discloses an SPPs (Surface Plasma Polaritons) thin film heterojunction and perovskite laminated solar cell and a preparation method of the solar cell. The solar cell comprises an aluminum electrode, an SPPs thin film heterojunction solar cell, an ITO connection layer, a triangular grating perovskite cell and a metal grid line electrode from bottom to top. The preparation method of the solar cell comprises the following steps: 1, preparing the SPPs thin film heterojunction solar cell; 2, preparing the ITO connection layer on a front surface of the SPPs thin film heterojunction cell by a magnetron sputtering coating system; 3, preparing the triangular grating perovskite cell; and 4, preparing the metal grid line electrode by a silk-screen printing method. The prepared solar cell first utilizes a perovskite top cell to absorb short-wavelength sunlight, and then utilizes a thin film heterojunction bottom cell to absorb long-wavelength sunlight, so as to form a reasonable laminated thin film cell structure, the spectral absorption range of the thin film cell is effectively expanded, and the photoelectric conversion efficiency is improved.

Description

technical field [0001] The invention belongs to the technical field of novel stacked solar cells, and relates to a stacked solar cell based on the combination of SPPs thin film heterojunction and perovskite and a preparation method thereof. Background technique [0002] In the cost share of finished silicon-based solar cells, silicon materials account for nearly 40%, while the thickness of thin-film solar cells is less than 1 μm, which is less than 1 / 100 of the thickness of crystalline silicon solar cells, which greatly reduces manufacturing costs. However, the reduced thickness also reduces the efficiency of thin-film solar cells. Through the light management design, the structure of "electrically thin" and "optical thick" can be realized, thereby improving the photoelectric conversion efficiency of the battery. [0003] Among all light management designs, the use of light-trapping structures is the most effective way to improve the photoelectric conversion efficiency of c...

Claims

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Application Information

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IPC IPC(8): H01L51/42H01L51/48H01L51/44
CPCH10K30/10H10K30/80H10K30/00Y02E10/549Y02P70/50
Inventor 史林兴周朕黄增光丁瑞强孙庆强
Owner HUAIHAI INST OF TECH
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