Machine Learning(ML)-Assisted Design and Fabrication for Solar Cells

Machine Learning(ML)-Assisted Design and Fabrication for Solar Cells

论文摘要

Photovoltaic (PV) technologies have attracted great interest due to their capability of generating electricity directly from sunlight. Machine learning(ML) is a technique for computer to learn how to perform a specific task using known data. It can be used in many areas and has become a hot research topic recently due to the rapid accumulation of data and advancement of computer hardware. The application of ML techniques in the design and fabrication of solar cells started slowly but has recently gained tremendous momentum. An exhaustive compilation of the literatures indicates that all the major aspects in the research and development of solar cells can be effectively assisted by ML techniques. If combined with other tools and fed with additional theoretical and experimental data, more accurate and robust results can be achieved from ML techniques. The aspects can be grouped into four categories:prediction of material properties,optimization of device structures, optimization of fabrication processes, and reconstruction of measurement data. A statistical analysis of the literatures shows that artificial neural network (ANN) and genetic algorithm (GA) are the two most applied ML techniques and the topics in the optimization of device structures and optimization of fabrication processes are more popular.This article can be used as a reference by all PV researchers who are interested in ML techniques.

论文目录

  • 1. Introduction
  • 2. Typical ML Techniques In Solar Cells
  •   2.1. Artificial Neural Network (ANN)
  •   2.2. Genetic Algorithm (GA)
  •   2.3. Particle Swarm Optimization (PSO)
  •   2.4. Simulated Annealing (SA)
  •   2.5. Random Forest (RF)
  •   2.6. Other ML Techniques
  • 3. Applications of ML Techniques in Solar Cells
  •   3.1. Prediction of Material Properties
  •     3.1.1. Optical Properties
  •     3.1.2. Electrical Properties
  •     3.1.3. Solubility
  •     3.1.4. Stability
  •     3.1.5. I-V Performances
  •     3.1.6. Other Properties
  •   3.2. Optimization of Device Structures
  •     3.2.1. Antireflection Coating (ARC)
  •     3.2.2. Light Scattering
  •     3.2.3. Doping Profile and Thickness
  •     3.2.4. Others
  •   3.3. Optimization of Fabrication Processes
  •     3.3.1. Plasma-Enhanced Chemical Vapor Deposition (PECVD) of Si3N4Thin Films
  •     3.3.2. Contact Formation
  •     3.3.3. Texturing and Emitter Formation
  •     3.3.4. TiO2Photoanode in DSSC
  •     3.3.5. Laser Scribing
  •     3.3.6. Deposition of Thin-Film Absorber Layer
  •     3.3.7. Processing of Si Wafer
  •   3.4. Reconstruction of Measurement Data
  •     3.4.1. Electroluminescence (EL) Images
  •     3.4.2. Electron Microscopy
  •     3.4.3. Transmittance
  •     3.4.4. Laser-Induced Breakdown Spectroscopy (LIBS)
  •     3.4.5. Laser Light Reflection Point Images (LLRPI)
  • 4. Trends of ML Techniques in Solar Cell
  • 5. Conclusions
  • 文章来源

    类型: 期刊论文

    作者: Fan Li,Xiaoqi Peng,Zuo Wang,Yi Zhou,Yuxia Wu,Minlin Jiang,Min Xu

    来源: 能源与环境材料(英文) 2019年04期

    年度: 2019

    分类: 工程科技Ⅰ辑,工程科技Ⅱ辑,信息科技

    专业: 电力工业,自动化技术

    单位: Institute of Advanced Study, Nanchang University,School of Information Engineering, Nanchang University,Department of Computational Biology, Carnegie Mellon University

    基金: partialy supported by Nanchang University,under Research Grant 9166-2701010119

    分类号: TM914.4;TP181

    页码: 280-291

    总页数: 12

    文件大小: 565K

    下载量: 4

    相关论文文献

    • [1].Femtosecond laser fabrication of 3D templates for mass production of artificial compound eyes[J]. Nanotechnology and Precision Engineering 2019(03)
    • [2].Laser fabrication of graphene-based supercapacitors[J]. Photonics Research 2020(04)
    • [3].A design method for high fabrication tolerance integrated optical mode multiplexer[J]. Science China(Information Sciences) 2020(06)
    • [4].Effects of fabrication errors on diffraction efficiency for a diffractive membrane[J]. Chinese Optics Letters 2016(12)
    • [5].Determination of ~(232)U in Reprocessed Uraium[J]. Annual Report of China Institute of Atomic Energy 2010(00)
    • [6].Exploring and engineering carbon dots for energy conversion and storage[J]. Science Foundation in China 2019(04)
    • [7].In situ selective laser gas nitriding for composite TiN/Ti-6Al-4V fabrication via laser powder bed fusion[J]. Journal of Materials Science & Technology 2020(10)
    • [8].Review of structural design, fabrication, and application of microchannel reactors[J]. Science Foundation in China 2019(02)
    • [9].Design and fabrication of computer-generated holograms for testing optical freeform surfaces[J]. Chinese Optics Letters 2013(03)
    • [10].A modeling method of semiconductor fabrication flows with extended knowledge hybrid Petri nets[J]. High Technology Letters 2008(01)
    • [11].Phytic acid-derived fabrication of ultra-small MoP nanoparticles for efficient CO methanation: Effects of P/Mo ratios[J]. Journal of Energy Chemistry 2020(08)
    • [12].Preface to the Special Topic on 2D Materials and Devices[J]. Journal of Semiconductors 2017(03)
    • [13].Progress in sonochemical fabrication of nanostructured photocatalysts[J]. Rare Metals 2016(03)
    • [14].Hydrothermal fabrication of selectively doped organic assisted advanced ZnO nanomaterial for solar driven photocatalysis[J]. Journal of Environmental Sciences 2015(08)
    • [15].Urgently reveal longly hidden toxicant in a familiar fabrication process of biomass-derived environment carbon material[J]. Journal of Environmental Sciences 2021(02)
    • [16].An efficient method for monitoring the shunts in silicon solar cells during fabrication processes with infrared imaging[J]. 半导体学报 2009(07)
    • [17].Recent progress of morphable 3D mesostructures in advanced materials[J]. Journal of Semiconductors 2020(04)
    • [18].PREFACE[J]. Chinese Journal of Polymer Science 2020(05)
    • [19].Study on PIPS Detector[J]. Annual Report of China Institute of Atomic Energy 2014(00)
    • [20].Growth and fabrication of a mid-wavelength infrared focal plane array based on type-II InAs/GaSb superlattices[J]. Journal of Semiconductors 2013(11)
    • [21].Design,fabrication and experimental research for an electrohydrodynamic micropump[J]. Science China(Technological Sciences) 2010(10)
    • [22].Research on the atomic force microscopy-based fabrication of nanochannels on silicon oxide surfaces[J]. Chinese Science Bulletin 2010(30)
    • [23].Simple fabrication of superhydrophobic PLA with honeycomb-like structures for high-efficiency oil-water separation[J]. Chinese Chemical Letters 2020(02)
    • [24].Flame spray pyrolysis for the one-step fabrication of transition metal oxide films:Recent progress in electrochemical and photoelectrochemical water splitting[J]. Chinese Chemical Letters 2020(03)
    • [25].Recent progress on non-thermal plasma technology for high barrier layer fabrication[J]. Plasma Science and Technology 2018(06)
    • [26].The design and fabrication of Co_3O_4/Co_3V_2O_8/Ni nanocomposites as high-performance anodes for Li-ion batteries[J]. Journal of Energy Chemistry 2017(03)
    • [27].Laser-induced convenient fabrication of CdS nanocages with super-adsorption capability for methyl blue solution[J]. Chinese Physics B 2017(08)
    • [28].Facile fabrication of bulk heterojunction films for solar energy harvesting[J]. Science Foundation in China 2015(04)
    • [29].Photoconductivity and surface chemical analysis of ZnO thin films deposited by solution-processing techniques for nano and microstructure fabrication[J]. Journal of Semiconductors 2013(03)
    • [30].A new fabrication process for the SOI-based miniature electric field sensor[J]. Journal of Semiconductors 2013(08)
    Machine Learning(ML)-Assisted Design and Fabrication for Solar Cells
    下载Doc文档

    猜你喜欢