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Solar Radiation | p. 1 |
Introduction | p. 1 |
The Sun | p. 1 |
The Earth | p. 2 |
Earth's Atmosphere | p. 2 |
Measurement of Solar Radiation on Earth's Surface | p. 5 |
Pyrheliometer | p. 5 |
Pyranometer | p. 6 |
Sunshine Recorder | p. 7 |
Sun-Earth Angles | p. 8 |
Zenith Angle (¿ z) | p. 8 |
Solar Altitude (¿) | p. 9 |
Solar Azimuth Angle (¿Sun) | p. 9 |
Wall Azimuth Angle (¿wall) | p. 9 |
Solar Declination (¿) | p. 10 |
Latitude (¿) and Longitude (Lt) | p. 11 |
Hour Angle (¿) | p. 14 |
Solar Time | p. 15 |
Angle of Incidence | p. 17 |
Solar Radiation on a Horizontal Surface | p. 19 |
Solar Radiation on an Inclined Surface | p. 23 |
Problems | p. 28 |
References | p. 28 |
History of PV-integrated Systems | p. 29 |
Introduction | p. 29 |
History of PV/T Air Heating | p. 30 |
PV Integrated with Air Collector | p. 30 |
Ventilated BIPV System | p. 33 |
History of PV/T Water Heating | p. 42 |
Temperature-dependent Electrical Performance of PV Module | p. 59 |
PV Module Efficiency as a Function of the Operating Temperature | p. 60 |
PV Power Output Dependence on Module Operating Temperature | p. 61 |
Artificial Intelligence Techniques for PV systems | p. 63 |
Artificial Neural Networks | p. 68 |
Fuzzy Logic | p. 69 |
Genetic Algorithm | p. 70 |
Wavelet | p. 70 |
Hybrid Systems | p. 71 |
Market Potential of PV/T Systems | p. 71 |
Problems | p. 73 |
References | p. 73 |
Solar Cell Materials and Their Characteristics | p. 81 |
Introduction | p. 81 |
First Generation | p. 83 |
Second Generation | p. 83 |
Third Generation | p. 83 |
Doping | p. 84 |
Fermi Level | p. 84 |
p-n Junction | p. 85 |
Forward Bias | p. 86 |
Reverse Bias | p. 87 |
p-n Junction Characteristics | p. 88 |
Photovoltaic Effect | p. 90 |
Photovoltaic Material | p. 91 |
Silicon | p. 91 |
Cadmium Telluride (CdTe) | p. 93 |
Copper-Indium Selenide (CuInSe2) | p. 93 |
Gallium Arsenide (GaAs) Multijunction | p. 93 |
Single Crystal Solar Cell | p. 94 |
Light-absorbing Dyes | p. 95 |
Organic/Polymer Solar Cells | p. 95 |
Nanocrystalline Solar Cells | p. 95 |
Low-cost Solar Cells | p. 96 |
Basic Parameters of Solar Cells | p. 96 |
Overall Current (I) | p. 96 |
Short Circuit Current (Isc) | p. 97 |
Open Circuit Voltage (Voc) | p. 97 |
I-V Characteristics | p. 97 |
Fill Factor (FF) | p. 98 |
Maximum Power (Pmax) | p. 98 |
Solar Cell Efficiency (¿ec) | p. 99 |
Limits to Cell Efficiency | p. 100 |
Determination of Rs | p. 102 |
Determination of Rp | p. 103 |
Thin-film Solar Cell | p. 103 |
Amorphous Si Solar Cells (a-SiH) | p. 103 |
Tandem Solar Cells | p. 103 |
Concentrating Solar Cells | p. 103 |
Effect of Cell Temperature on Cell Efficiency | p. 103 |
Current Research on Materials and Devices | p. 104 |
Silicon Processing | p. 105 |
Thin-film Processing | p. 105 |
Polymer Processing | p. 106 |
Nanoparticle Processing | p. 106 |
Transparent Conductors | p. 106 |
Silicon Wafer-based Solar Cells | p. 107 |
Problems | p. 108 |
References | p. 108 |
PV Array Analysis | p. 110 |
Introduction | p. 110 |
Photovoltaic (PV) Module and Array | p. 111 |
Theory and Construction | p. 112 |
Single Crystal Solar Cells Module | p. 114 |
Packing Factor (ßc) of a PV Module | p. 115 |
Efficiency of a PV/T Module | p. 115 |
Applications | p. 117 |
PV Performance | p. 119 |
Solar Photovoltaic Panels on Spacecraft | p. 121 |
Series and Parallel Combinations | p. 122 |
Balance of PV Array | p. 123 |
Partial Shading of Solar Cell and Module | p. 123 |
Maximum Power Point Tracker (MPPT) | p. 126 |
International Status of PV Power Generation | p. 126 |
Problems | p. 128 |
References | p. 128 |
Role of Batteries and Their Uses | p. 130 |
Introduction | p. 130 |
Fundamental Principles | p. 132 |
Electro-chemical Action | p. 133 |
Physical Construction | p. 134 |
Voltage | p. 135 |
Specific Gravity | p. 136 |
Specific Gravity Corrections | p. 136 |
Capacity | p. 137 |
Discharge Characteristics | p. 139 |
Charging Characteristics | p. 140 |
Selection of PV Battery | p. 141 |
Batteries Commonly Used for PV Applications | p. 142 |
Battery Installation, Operation and Maintenance | p. 142 |
Battery Protection and Regulating Circuits | p. 144 |
Battery Simulation and Sizing | p. 146 |
Battery Lifetime in a PV System | p. 146 |
Charging State of PV-powered Storage Batteries | p. 148 |
General Terms | p. 151 |
Efficiency | p. 151 |
Local Action | p. 151 |
Gassing | p. 151 |
Mossing | p. 152 |
Sediment | p. 152 |
Temperature | p. 152 |
Internal Resistance | p. 153 |
Testing | p. 153 |
Dry-charged Batteries | p. 153 |
Maintenance | p. 154 |
Lead-Calcium Cell | p. 154 |
Problems | p. 155 |
References | p. 155 |
Case Studies of PV/T Systems | p. 157 |
Introduction | p. 157 |
Case Study I: Grid-connected Building Integrated Photovoltaic System (BIPV): Hong Kong | p. 157 |
Case Study II: Simulation of an Existing BIPV System for Indian Climatic Conditions | p. 160 |
Case Study III: PV-integrated Water-pumping Application in Nebraska | p. 164 |
Energy and Emission Savings | p. 166 |
Solar Water-pumping Systems in Punjab, India | p. 166 |
Case Study IV: Grid-interactive Photovoltaic Park on the Island of Crete | p. 168 |
Case Study V: Performance Study of Solar Drying Systems in Nepal | p. 172 |
References | p. 173 |
Thermal Modelling of Hybrid Photovoltaic/Thermal (PV/T) System | p. 174 |
Introduction | p. 174 |
PV/T Air Collectors | p. 176 |
Hybrid Air Collector | p. 177 |
Double-pass PV/T Solar Air Collector | p. 181 |
Thermal Modelling of PV/T Air Collector Covered by Glass-to-Tedlar Type PV Module | p. 183 |
Thermal Modelling of PV/T Air Collector Covered by Glass-to-Glass Type PV Module | p. 193 |
Testing of the Solar Air Collector | p. 197 |
PV/T Solar Water Heater | p. 200 |
Integration of a PV Module on a Collector | p. 201 |
Overall Thermal and Electrical Efficiency | p. 203 |
Hybrid PV/T Water-heating System | p. 204 |
Collectors Connected in Series | p. 219 |
Comparison of Performance of Liquid and Air Collectors | p. 229 |
PV/T Solar Distillation System | p. 229 |
Active PV/T Distillation System | p. 230 |
PV/T Solar Dryers | p. 234 |
Solar Tunnel Dryer | p. 236 |
Solar Greenhouse Dryer | p. 238 |
Conventional Solar Grain Dryer | p. 243 |
Conventional PV/T Mixed Mode Dryer | p. 246 |
Statistical Analysis | p. 251 |
Problems | p. 253 |
References | p. 253 |
Energy and Exergy Analysis | p. 257 |
Energy Analysis | p. 257 |
Energy Matrices | p. 259 |
Energy Pay Back Time (EPBT) | p. 260 |
Energy Production Factor (EPF) | p. 260 |
Life Cycle Conversion Efficiency (LCCE) | p. 260 |
Embodied Energy | p. 260 |
Embodied Energy Analysis | p. 261 |
Embodied Energy Density | p. 261 |
Embodied Energy of PV Module (Glass-to-Glass) | p. 263 |
Balance of System (BOS) | p. 265 |
Analysis of Embodied Energy and EPBT of PV/T Solar Systems | p. 265 |
Hybrid PV/T Active Distillation System | p. 265 |
PV/T Air Collector | p. 267 |
Hybrid PV/T Solar Water Heater | p. 270 |
Hybrid PV-integrated Greenhouse Dryer | p. 273 |
Hybrid Conventional PV/T Solar Dryer | p. 275 |
Energy Pay-back Periods of Roof-mounted Photovoltaic Cells | p. 277 |
Exergy Analysis | p. 279 |
Importance of Exergy | p. 281 |
Exergy of a Process | p. 284 |
Solar Radiation Energy | p. 284 |
Exergy of Stratified Thermal Energy Storages | p. 286 |
Exergy Efficiency | p. 287 |
Exergetic Analysis of Flat-plate Collector | p. 288 |
The Effects of Collector Design Parameters on the Collector Exergy Efficiency | p. 289 |
Exergetic Analysis of PV/T Systems | p. 290 |
Active Distillation System | p. 291 |
PV/T Water Heater | p. 293 |
PV/T Solar Dryers | p. 295 |
Problems | p. 298 |
References | p. 298 |
CO2 Mitigation and Carbon Trading | p. 302 |
Introduction | p. 302 |
CO2 Emissions | p. 306 |
The Kyoto Protocol | p. 308 |
Kyoto's Flexible Mechanisms | p. 310 |
Emission Allowances | p. 310 |
Additionality and Its Importance | p. 311 |
Emission Trading | p. 311 |
Clean Development Mechanism (CDM) | p. 313 |
CDM Projects | p. 313 |
CDM as an Instrument of Technology Transfer | p. 315 |
Carbon Credit Analysis | p. 316 |
Solar Energy Park (SEP) | p. 317 |
Solar PV/T Systems | p. 318 |
Carbon Credits Earned by Stand Alone Photovoltaic (SAPV) System | p. 320 |
Carbon Credit on National Level by SAPV System | p. 321 |
Effect of Solar Intensity and Number of Clear Days | p. 323 |
Energy Pricing | p. 324 |
Problems | p. 325 |
References | p. 325 |
Economic Analysis | p. 327 |
Introduction | p. 327 |
Cost Analysis | p. 328 |
Capital Recovery Factor | p. 328 |
Unacost | p. 332 |
Sinking Fund Factor | p. 334 |
Cash Flow | p. 340 |
Cost Comparisons with Equal Duration | p. 343 |
Cost Comparisons with Unequal Duration | p. 344 |
Single Present Value Method | p. 344 |
Cost Comparison by Annual Cost Method | p. 346 |
Cost Comparison by Capitalized Cost | p. 346 |
Analytical Expression for Payout Time | p. 348 |
Net Present Value | p. 349 |
Benefit-Cost Analysis | p. 352 |
Internal Rate of Return | p. 357 |
Effect of Depreciation | p. 362 |
Cost Comparisons of Solar Dryers with Duration | p. 363 |
Problems | p. 364 |
References | p. 367 |
p. 369 | |
p. 373 | |
p. 379 | |
p. 381 | |
p. 385 | |
p. 387 | |
Glossary | p. 388 |
Subject Index | p. 398 |
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The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.