Light absorption layer material of solar cell, ternary cation perovskite solar cell and preparation method of ternary cation perovskite solar cell
A solar cell and light-absorbing layer technology, applied in the field of solar cells, can solve problems such as difficult repeatability, low photovoltaic parameters, and restrictions on the industrial development of perovskite solar cells, achieve high energy conversion efficiency, suppress phase separation, and facilitate The effect of large area blade coating production
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0056] Step 1: Configure the perovskite battery precursor solution
[0057] (1) Add 0.013gCsI, 0.0239gMAI, 0.1462gFAI, 0.484gPbI 2 Mix 0.0024gMABr, 0.0058gPbCl 2 Dissolve it in a mixed solvent of 560 microliters of DMF and 140 microliters of DMSO to obtain a molar amount corresponding to 1 / 3, which is recorded as 2% mol MAPbBrCl 2 Excessive perovskite precursor solution.
[0058] (2) Mix and dissolve the tin oxide nano-aqueous solution in deionized water to obtain 20 mg / ml of SnO 2 solution.
[0059] (3) Take 0.072g of Spiro-OMeTAD solid; dissolve lithium salt LiTFSi in acetonitrile, mix well and configure a concentration of 520mg / ml, take 18 microliters of acetonitrile solution of lithium salt LiTFSi and 29 microliters of tributyl phosphate in Mix evenly in 1ml of chlorobenzene solvent to prepare a 720mg / ml Spiro-OMeTAD solution.
[0060] Step 2: Preparation of Thin Film Battery
[0061] (1) The glass substrate coated with the ITO layer was ultrasonically cleaned with a...
Embodiment 2
[0072] Step 1: Configure the perovskite battery precursor solution
[0073] (1) Add 0.013gCsI, 0.0239gMAI, 0.1462gFAI, 0.484gPbI 2 Mix 0.0047gMABr, 0.0117gPbCl 2 Dissolved in a mixed solvent of 560 microliters of DMF and 140 microliters of DMSO to obtain a molar amount corresponding to 1 / 3, recorded as 4% mol MAPbBrCl 2 Excessive perovskite precursor solution.
[0074] (2) Mix and dissolve the tin oxide nano-aqueous solution in deionized water to obtain 20 mg / ml of SnO 2 solution.
[0075] (3) Take 0.072g of Spiro-OMeTAD solid; dissolve lithium salt LiTFSi in acetonitrile, mix well and configure a concentration of 520mg / ml, take 18 microliters of acetonitrile solution of lithium salt LiTFSi and 29 microliters of tributyl phosphate in Mix evenly in 1ml of chlorobenzene solvent to prepare a 720mg / ml Spiro-OMeTAD solution.
[0076] Step 2: Preparation of Thin Film Battery
[0077] (1) The glass substrate coated with the ITO layer was ultrasonically cleaned with acetone, mic...
Embodiment 3
[0088] Step 1: Configure the perovskite battery precursor solution
[0089] (1) Add 0.013gCsI, 0.0239gMAI, 0.1462gFAI, 0.484gPbI 2 Mix 0.0094gMABr, 0.0234gPbCl 2 Dissolve it in a mixed solvent of 560 microliters of DMF and 140 microliters of DMSO to obtain a molar amount corresponding to 1 / 3, which is recorded as 8% mol MAPbBrCl 2 Excessive perovskite precursor solution.
[0090] (2) Mix and dissolve the tin oxide nano-aqueous solution in deionized water to obtain 20 mg / ml of SnO 2 solution.
[0091] (3) Take 0.072g of Spiro-OMeTAD solid; dissolve lithium salt LiTFSi in acetonitrile, mix well and configure a concentration of 520mg / ml, take 18 microliters of acetonitrile solution of lithium salt LiTFSi and 29 microliters of tributyl phosphate in Mix evenly in 1ml of chlorobenzene solvent to prepare a 720mg / ml Spiro-OMeTAD solution.
[0092] Step 2: Preparation of Thin Film Battery
[0093] (1) The glass substrate coated with the ITO layer was ultrasonically cleaned with a...
PUM
| Property | Measurement | Unit |
|---|---|---|
| Thickness | aaaaa | aaaaa |
| Thickness | aaaaa | aaaaa |
| Thickness | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 


