Influence of defect type on hydrogen passivation efficacy in multicrystalline silicon solar cells

Engineering & Materials Science

• Silicon solar cells 100%
• Passivation 88%
• Grain boundaries 74%
• Silicides 66%
• Hydrogenation 61%
• Hydrogen 58%
• Defects 50%
• Iron 44%
• Fluorescence microscopy 35%
• Electron diffraction 32%
• Induced currents 31%
• Laser beams 27%
• Etching 26%
• Solar cells 25%
• Precipitates 25%
• X rays 22%
• Silicon 19%
• Microstructure 16%

Physics & Astronomy

• passivity 68%
• solar cells 54%
• grain boundaries 54%
• hydrogenation 53%
• silicides 50%
• hydrogen 45%
• defects 40%
• iron 35%
• precipitates 21%
• etching 18%
• fluorescence 18%
• laser beams 17%
• microscopy 17%
• microstructure 14%
• silicon 13%
• diffraction 13%
• x rays 11%
• electrons 10%

Chemical Compounds

• Grain Boundary 76%
• Chemical Passivation 74%
• Solar Cell 63%
• Hydrogen 37%
• Electron Backscatter Diffraction 35%
• Fluorescence Microscopy 24%
• X-Ray Fluorescence 24%
• Etching 22%
• Microstructure 16%