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多晶硅/PEDOT:PSS异质结太阳能电池的设计及制备研究

摘要第5-6页
ABSTRACT第6页
CHAPTER 1, INTRODUCTION TO BACK GROUND AND LITERATURE REIVEW第10-26页
    1.1. Combustion of fossil fuels and Global warming第10页
    1.2. Renewable Energy Sources第10页
    1.3. Solar cells (PVs) General第10-12页
        1.3.1 Absorption of photons第11页
        1.3.2. Exciton diffusion第11-12页
        1.3.3. Charge separation第12页
        1.3.4. Charge transport第12页
        1.3.5. Charge collection第12页
    1.4. First-generation solar cells第12-13页
    1.5. Second-generation solar cells第13-14页
        1.5.1. Thin film solar cells第13-14页
        1.5.2. Organic solar cells第14页
    1.6. Third-generation solar cells第14-23页
        1.6.1. Concentrating photovoltaic technology第15页
        1.6.2. Dye-sensitized solar cells第15-16页
        1.6.3. organic solar cells第16页
        1.6.4. Novel and emerging solar cell concepts第16页
        1.6.5. Radial homojunction Silicon nanowires (SiNW) solar cells第16页
        1.6.6. Multi-exciton generation solar cells第16-17页
        1.6.7. Hybrid solar cells第17页
        1.6.8. Fabrication of hybrid solar cells第17-23页
    1.7. Research objective第23页
    1.8. Thesis outline第23-26页
CHAPTER 2, THEORY OF BACK GROUND AND PHYSICAL STRUCTURE第26-36页
    2.0 Solar Cell Basics第26-27页
    2.1. Open-circuit voltage第27页
    2.2. Short Circuit Current第27页
    2.3. Series Resistance第27页
    2.4. Fill-factor第27-28页
    2.5. Power conversion efficiency (PCE)第28页
    2.6. Solar Spectrum第28-29页
    2.7. Properties of Silicon and PEDOT:PSS第29-36页
        2.7.1. Silicon第29-30页
        2.7.2. PEDOT:PSS第30-32页
        2.7.3 Optical properties of Si and PEDOT:PSS第32-33页
        2.7.4. Carrier transport in p-n junction solar cells第33-34页
        2.7.5. J-V curves of Hybrid solar cells第34-36页
CHAPTER 3, METHODOLOGY AND FABRICATION OF PLANAR (SI/PEDOT:PSS) SOLARCELL第36-42页
    3.1. Planar-Silicon/PEDOT:PSS solar cell modeling第36页
    3.2. Fabrication Process of Planar solar cell (Silicon/PEDOT:PSS)第36-37页
        3.2.1. RCA cleaning第36-37页
        3.2.2. First step (SC-1): organic clean+particle clean第37页
        3.2.3. Second step: rinsing and drying第37页
        3.2.4 Third step: Drying on a Hotplate第37页
    3.3. Deposition of Back-electrode (AI)第37-38页
    3.4 Spin Coating of conductive polymer (PEDOT:PSS)第38-39页
        3.4.1 CLEVIOS~(TM) P VP AI 4083 [50]第38页
        3.4.2 Physical characteristics第38页
        3.4.3. Chemical Characteristics第38页
        3.4.4. Technical Data (guide values, not a specifications)第38-39页
    3.5. Deposition of front-electrode silver grid (Ag)第39-42页
        3.5.1. Images of the actual fabricated hybrid solar cell device第40-42页
CHAPTER 4, FABRICATION PROCESS OF RANDOM-PYRAMID CELL (SI/PEDOT:PSS)第42-56页
    4.1. RCA cleaning第42页
    4.2. Etching of silicon substrate to obtain Random-Pyramid front structure第42-49页
        4.2.1 Etching of the Silicon substrates (KOH+IPA)第42-43页
        4.2.2. Etching of the Silicon substrates (NaOH+Na_2SiO_3+IPA)第43-45页
        4.2.3. Etching of the Silicon substrates (KOH + IPA) higher concentration.第45-46页
        4.2.4. Etching of the Silicon substrates (NaOH+KOH+Na_2SiO_3+IPA) higher concentration第46-49页
    4.3. Improved surface hydrophilicity of silicon substrates第49页
    4.4. Fabrication of solar cell device having textured Random-pyramid front surface第49-56页
        4.4.1. Deposition of Back-electrode (Al)第49-50页
        4.4.2. Rapid Thermal Oxidation (RTO-SiO_x)第50页
        4.4.3. Spin Coating of conductive polymer (PEDOT:PSS)第50页
        4.4.4. CLEVIOS~(TM) PH 1000 [50]第50页
        4.4.5. Physical Characteristics第50-51页
        4.4.6. Spin Coating on silicon substrates第51页
        4.4.7. Adding DMSO with PEDOT:PSS第51页
        4.4.8. Adding Triton X-100 with PEDOT:PSS第51-53页
        4.4.9. Images of the actual fabricated hybrid solar cell device第53-56页
CHAPTER 5, CONCLUSION第56-58页
    5.1. Future work第57-58页
References第58-62页
ACKNOWLEDGEMENT第62-64页
List of Figures第64-66页
List of tables第66-68页
List of abbreviations第68-70页
Biography of Author第70页

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