توضیحاتی در مورد کتاب PV Technology and Manufacturing (Advances in Science, Technology & Innovation)
نام کتاب : PV Technology and Manufacturing (Advances in Science, Technology & Innovation)
عنوان ترجمه شده به فارسی : فناوری و ساخت PV (پیشرفت در علم، فناوری و نوآوری)
سری :
نویسندگان : Abdul Hai Alami (editor)
ناشر : Springer
سال نشر :
تعداد صفحات : 185
ISBN (شابک) : 9783031313486 , 3031313488
زبان کتاب : English
فرمت کتاب : pdf
حجم کتاب : 11 مگابایت
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فهرست مطالب :
Foreword\nPreface\nContents\nList of Figures\n1 Introduction to Photovoltaic Cell Manufacturing\n Abstract\n 1 Introduction to Solar Photovoltaics Manufacturing\n References\n2 First-Generation Photovoltaics: History and Conventional Manufacturing\n Abstract\n 1 Introduction\n 2 PV Technologies Introduction and Proliferation\n 3 History of Manufacturing Technology\n 4 Harmonizing Materials and Manufacturing Processes\n 5 Life Cycle Analysis of Photovoltaic Technologies\n 5.1 PV Systems Components and Technologies-To-Be-Analyzed\n 5.2 Energy Impact and Emissions of Silicon Solar PV Technologies\n References\n3 Silicon Feedstock and Ultra-Refinement\n Abstract\n 1 The Carbothermal Refinement Process\n 2 Silicon Ultra-Refinement\n 2.1 Siemens Process\n 2.2 Fluidized Bed Reactor Process\n 3 Monocrystalline Silicon Production\n 3.1 The Czochralski Process\n 3.2 Float Zone Process\n 4 Multi-crystalline Silicon (MS-Si) Production Processes\n 4.1 String Ribbon Process\n 4.2 Ribbon Growth Technique\n 4.3 Comparison Between Bulk Process and Ribbon Growth\n 5 Silicon Post-processing\n References\n4 Solar Grade Silicon Feedstock Properties\n Abstract\n 1 Introduction to Energy Bandgap\n 1.1 Shockley–Queisser Limit\n 1.2 Bandgap and Semiconductors\n 2 Physical Properties of Silicon\n 2.1 Effect of Doping on Silicon Properties\n 3 Chemical Properties of Silicon\n 4 Photovoltaic Primer\n 4.1 n-Type Versus p-Type\n 4.2 Equivalent Circuits\n 4.3 Performance Calculations\n 5 Generation and Recombination\n 5.1 Unavoidable Recombination\n 5.2 Avoidable Recombination\n References\n5 Manufacturing of Silicon Solar Cells and Modules\n Abstract\n 1 Introduction\n 2 Silicon Bulk Properties\n 2.1 Bandgap Selection and Tuning\n 2.2 Carrier Concentration\n 2.3 Recombination\n 2.4 Electron Mobility\n 2.5 Surface Contacts\n 3 Crystalline Silicon Solar Cells\n 3.1 Cell Contact Design\n 3.2 PERL and Commercial Cells\n 4 Conventional Solar Cell Manufacturing\n 4.1 Substrate Selection\n 4.2 Doping Level and Type\n 4.3 Cell Thickness\n 4.4 Front Surface\n 4.5 Homogenous Emitters\n 4.6 Heterojunction Solar Cell Structure\n 5 Industrial Cells\n 5.1 Back Surface Field\n 5.2 Cell Size Effects\n 5.3 Cell Optics\n 5.4 Texturing of Cell Surface\n 5.5 Light Trapping\n 6 Module Manufacturing Processes Overview\n 6.1 Starting Materials and Processes\n 6.2 Saw Damage Removal\n 6.3 Texturing\n 6.3.1 Chemical Texturing\n 6.3.2 Plasma Texturing\n 6.3.3 Mechanical Texturing\n 6.4 Phosphorus Diffusion\n 6.4.1 Quartz Furnace\n 6.4.2 Belt Furnace\n 7 Cell Optical Enhancements\n 7.1 Chemical Vapour Deposition (CVD)\n 7.2 Direct PECVD\n 7.3 Remote PECVD\n 7.4 Sputtering Techniques\n 8 Front Contact Print and Dry\n 8.1 Screen Printing\n 8.1.1 Screen Printing Process\n 8.1.2 Paste Properties\n 8.1.3 Process Parameters\n 9 Back Surface Field Deposition\n 10 Drying and Co-Firing\n 11 Testing and Sorting\n 12 Module Making\n References\n6 Second-Generation Photovoltaics: Thin-Film Technologies\n Abstract\n 1 Introduction and Importance\n 2 Overview of Manufacturing Techniques\n 3 Available Thin-Film Photovoltaic Technologies\n 3.1 Cadmium Telluride (CdTe) Solar Cells\n 3.1.1 CdTe Cell Efficiency\n 3.2 Copper Indium Gallium Selenide (CIGS) Solar Cells\n 3.2.1 Cell Manufacturing Considerations\n 3.2.2 Device Structure and Construction\n 3.2.3 History of Device Efficiency\n 3.2.4 Manufacturing Technologies\n 3.3 Gallium Arsenide Thin-Film Cells\n 3.4 Amorphous Silicon Solar Cells (a-Si)\n 3.4.1 Manufacturing Technologies\n 3.4.2 Cell Efficiency\n 3.4.3 Tandem-Cell Using A-Si/μc-S\n 3.4.4 Polycrystalline Silicon on Glass\n 3.4.5 Doping of Amorphous Silicon\n 3.4.6 Amorphous Silicon Manufacturing Techniques\n 3.4.7 Deposition Techniques for Amorphous Silicon\n References\n7 Third-Generation Photovoltaics: Dye-Sensitized Solar Cells (DSSC)\n Abstract\n 1 Introduction\n 1.1 Roll-To-Roll (R2R) Manufacturing\n 1.2 Third-Generation PV Cell Structure\n 2 Dye-Sensitized Solar Cells (DSSCs)\n 2.1 Grätzel Cell\n 2.2 DSSC Cell Structure\n 3 Operating Mechanism\n 4 Energy Levels and Recombination Prevention\n 5 Generated Voltage\n 6 Space Charge and the Electric Field\n 7 Depletion Zone/Charge Separation\n 8 Open Circuit Voltage Considerations\n 9 Short Circuit Current Considerations\n 10 Surface Area Considerations\n 11 Charge Collection Efficiency\n 12 The Fill Factor\n 13 Components of DSSC\n 13.1 TCO Electrode\n 13.2 Nanocrystalline TiO2 Photo-Electrode\n 13.3 Preparation of the TiO2 Electrode\n 13.4 Adsorption Properties of Dyes\n 13.5 Dye Preparation\n 13.6 Redox Electrolyte\n 13.7 Counter-Electrode\n 14 Performance of Highly Efficient DSSCs\n 14.1 Performance of Ru Sensitizer-Based DSSCs\n 14.2 Mechanism of Dye to Metal Oxide Electron Injection\n 14.3 Commercialization\n 14.4 Connectivity Options\n 15 Do-It-Yourself (DIY) Project and Case Study\n References\n8 Third-Generation Photovoltaics: Organic Photovoltaics (OPV)\n Abstract\n 1 History and Background\n 2 Physics of Organic Photovoltaics\n 3 Organic PV Cell Structure\n 4 Materials and Fabrication Techniques\n 4.1 Solvents\n 4.2 Hole-Transport Materials\n 4.3 Deposition on Substrates\n 4.3.1 Glass Substrates\n 4.3.2 Flexible Substrates\n 4.4 Compatibility with Roll-To-Roll\n 4.5 Spin Coating for OPV Manufacturing\n 4.6 Slot-Die Coating\n 4.7 Overall Fabrication Process\n 4.8 Scaling up OPV for Commercial Use\n 4.9 Recent Progress of Organic Solar Cells\n 4.10 Summary for Substrates Selection\n References\n9 Third-generation Photovoltaics: Perovskite Solar Cells (PSC)\n Abstract\n 1 History and Definition\n 2 Perovskite Solar Cell Structure and Operation\n 3 Cell Performance and Optical Bandgap\n 4 Progress in Perovskite Solar Cells\n 4.1 Improving Stability at a High Relative Humidity\n 4.2 Perovskite Solar Cell Efficiency Progress\n 4.3 Available Manufacturing Technologies\n 5 Do-it-yourself DIY Perovskite Project\n 5.1 Substrate Preparation\n 5.2 Electron Transport Layer (ETL) Deposition\n 5.3 Perovskite Preparation and Deposition\n 5.4 Hole Transport Layer and Counter Electrode\n References\n10 Recent Advances in Solar Cells\n Abstract\n 1 Introduction\n 2 Tandem Silicon/Perovskite Solar Cells\n 2.1 Manufacturing\n 2.2 Efficiency\n 2.3 Challenges\n 2.3.1 Transparent Electrodes\n 2.3.2 Scalability\n 2.3.3 Stability\n 2.3.4 Tin, Lead and Bromide\n 2.4 Environmental Impact and Recycling\n 2.5 Characterization\n 2.5.1 Morphological, Structural and Compositional Characterization\n 2.5.2 Optical Characterization\n 2.5.3 Radiative Characterization\n 2.5.4 External Quantum Efficiency Spectra\n 2.5.5 Current–Voltage Characterization\n 2.5.6 Stability Characterization\n 3 Bifacial Solar Photovoltaics\n 3.1 PERC\n 3.2 PERT\n 3.3 PERL\n 3.4 HJT\n 3.5 IBC\n 3.6 TOPCon\n 4 Semi-transparent Bifacial\n 5 Semi-transparent Organic Solar Cells (ST-OSC)\n 6 Semi-transparent Perovskite Solar Cells (ST-PSC)\n 7 Agrivoltaic Applications: Large-scale Projects in Arid Areas\n 8 Agrivoltaic Case Studies\n 8.1 India\n 8.2 Africa\n 8.3 Agrivoltaics Projects in Europe\n 9 Flexible Solar Cells\n 9.1 Substrate Types for Flexible Solar Cells\n 9.2 Metal Substrates\n 9.3 Ceramic Substrates\n 9.4 Plastic Substrates\n 9.5 Electrode Materials for Flexible Solar Cells\n 9.5.1 Thin-film Metals\n 9.5.2 Transparent Conducting Oxide\n 9.5.3 Metal Nanowires\n 9.5.4 Nanocarbons\n 9.5.5 Conducting Polymers\n References\n11 Characterization Techniques for Photovoltaics Manufacturing\n Abstract\n 1 Introduction\n 2 X-Ray Diffraction\n 3 Scanning Electron Microscopy\n 4 Atomic Force Microscopy\n 5 UV–Visible Spectrophotometry\n 6 Solar Simulator (Power Conversion Efficiency Measurement)\n 7 Quantum Efficiency\n 8 Time-Resolved Photo Luminescence\n 9 Raman Spectroscopy\n 10 Electrochemical Impedance Spectroscopy\n References\n12 Third-Generation Photovoltaic Cell Manufacturing Processes\n Abstract\n 1 Introduction\n 2 Photolithography\n 3 Screen Printing\n 3.1 Screen Printing—CdTe Thin-Film Solar Cells\n 3.2 Screen Printing—Silicon Solar Cells Contacts\n 3.3 Screen Printing—Dye-Sensitized Solar Cells\n 4 Spin Coating\n 4.1 System Components\n 4.1.1 Device Hub\n 4.1.2 Motor\n 4.1.3 Substrate Holder\n 4.1.4 Cover\n 4.1.5 Interface\n 4.2 Coating Steps and Principle\n 5 Slot-Die Coating\n 5.1 Device Components\n 5.2 Slot-Die-Head\n 5.3 Metering System\n 5.3.1 Syringe Pump\n 5.3.2 Rotary Pumps\n 5.4 Coating Principle\n 5.4.1 Capillary Model\n 5.4.2 Viscous Model\n 5.4.3 Viscocapillary Model\n 5.5 Slot-Die Coating in Third-Generation Solar Cells\n 6 Thermal Evaporation\n 6.1 Device Components\n 6.2 Thermal Evaporation Coating Steps\n 7 Doctor Blade Coating\n 8 Curtain Coating\n 9 Pad Printing\n 10 Spray Coating\n 11 Dip Coating\n References