1Preface
1687.5 Summary
2Chapter 1. Solar Energy
1697.6 Inquiries
31.1 Definition
1707.7 References
41.1.1 Active Solar Techniques
171Chapter 8. Agrivoltaic Culture
51.1.2 Passive Solar Techniques
1728.1 Introduction
61.2 History
1738.2 Land Equivalent Ratio
71.3 Traditional usage
1748.3 How solar changed traditional farming
81.3.1 As Heat For Making Hot Water, Heating Buildings, And Cooking
1758.4 Designs in Agrivoltaics: 8.4.1 Design of the PV Plant
91.3.2 To Generate Electricity With Solar Cells Or Heat Engines.
1768.5 Crop management
101.3.3 To Take The Salt Away From Sea Water
1778.5.1 Shade Tolerance
111.3.4 To Use Sun Rays For Drying Clothes And Towels
1788.5.2 Water Stress And Irrigation
121.3.5 It Is Used By Plants For The Process Of Photosynthesis
1798.5.3 Height
131.4 Heat as a form of energy
1808.5.4 Crop Rotation
141.5 Applications
1818.5.5 Lifetime
151.5.1 Solar Electricity
1828.5.6 Climate Change Resilience
161.5.2 Solar Water Heating
1838.5.7 Study Of Some Crops
171.5.3 Solar Heating
184Cereal, oilseeds, and protein crops
181.5.4 Solar Ventilation
185Industrial cultures
191.5.5 Solar Lighting
186Vegetables and potatoes
201.5.6 Portable Solar
187Lettuces
211.5.7 Solar Transportation
188Viticulture
221.5.8 A Solar-Powered Future
1898.6 Potential
231.6 Related to agriculture
1908.7 Benefits
241.7 Summary
1918.7.1 Building Resilient Systems
251.8 Inquiries
1928.7.2 Novel Ecosystems
261.9 References
1938.7.3 Implications For Food-Energy-Water Nexus
27Chapter 2. Solar Panel
194Food production
282.1 Introduction
195Water savings
292.2 Invention
196Improved renewable energy production
302.3 Mechanism
1978.8 Case Study
312.4 Applications: 2.4.1 Solar Irrigation System
1988.8.1 Synergy Effect for Agriculture
322.5 Limitations
1998.8.2 Hope for the Arid Regions
332.6 Efficiency
2008.9 Summary
342.7 Solar reliability
2018.10 Inquiries
352.8 Maintenance
2028.11 References
362.9 Recycling
203Chapter 9. Applications in Agriculture
372.9.1 Silicon Modules
2049.1 Introduction
382.9.2 Non-silicon Modules
2059.2 Energy Impacts
392.10 Summary
2069.3 Process
402.11 Inquiries
2079.3.1 Solar-Generation System
412.12 References
2089.3.2 Smart-Farming System
42Chapter 3. Solar Power
2099.4 Analysis of the practices
433.1 Introduction
2109.4.1 Power-Generation Analysis
443.2 Mainstream technologies
2119.4.2 Growth-Environment Analysis
453.2.1 Photovoltaic Cells
2129.4.3 Crop-Impact Analysis
463.2.2 Concentrated Alternative Energy
2139.5 Conclusions
473.2.3 Hybrid Systems
2149.6 Summary
48CPV/CSP system
2159.7 Inquiries
49Integrated solar combined cycle (ISCC) system
2169.8 References
50Photovoltaic thermal hybrid solar collector (PVT)
217Chapter 10. Overpowering Solar Energy in Agriculture
51Concentrated photovoltaics and thermal (CPVT)
21810.1 Introduction
52PV diesel system
21910.2 Background
53PV-thermoelectric system
22010.3 Overview of Irrigation Technologies
543.3 Grid integration
22110.3.1 Surface Irrigation
553.4 Solar power stations
22210.3.2 Sprinkler Irrigation
563.4.1 Photovoltaic Power Stations
22310.3.3 Drip Irrigation
573.4.2 Concentrating Solar Power Stations
22410.3.4 Comparison Of Sprinkler And Drip Irrigation
583.5 Energy payback
22510.3.5 Micro-Sprinkler Irrigation
593.6 Water use
22610.3.6 Modern Water-Saving Irrigation Solutions
603.7 Emerging technologies
22710.3.7 Cropping pattern requirements
613.7.1 Concentrator Photovoltaics
22810.3.8 Technical Characteristics and Design of SPIS
623.7.2 Floatovoltaics
229Components of photovoltaic pumping systems
633.8 Research database from the U.S government
230Solar generator
643.9 Summary
231Mounting and solar tracking systems
653.10 Inquiries
232Controller and motor
663.11 References
233Water pump
67Chapter 4. Benefit Over Others
234Water storage tank
684.1 Farming
235Monitoring
694.1.1 Irrigation
236SPIS plant concepts
704.1.2 Choosing the Right Irrigation Technology
237Variability of global solar radiation
714.1.3 Choosing The Right Pumping Technology
238Solar-powered irrigation plant configurations and operation
724.1.4 Choosing The Right Energy Source
239Solar-powered irrigation systems in well with Water tanks
73Grid Electricity
240Solar-powered irrigation systems in well by direct irrigation methods
74Fuels for combustion engines
241Solar-powered irrigation systems on the surface through direct irrigation
75Photovoltaic pumping (Solar Energy)
242Solar-powered irrigation systems on a surface by water tanks
76Wind energy
243Solar-Powered Irrigation System from Well, Surface through Direct Irrigation
77Hybrid system
244Solar-Powered Irrigation System with Grid-Connected
784.1.5 Post-harvest and Storage
245Suitability for drip irrigation
794.1.6 Processing
246Planning and sizing
80Drying of Produce
24710.3.9 Management Requirements
81Direct and Indirect Solar Drying
24810.3.10 Financial Viability: Ecological Impacts and Sustainability of Solar Powered Irrigation Systems
82Heat-assisted Drying
24910.3.11 Tools for Technical Design and Economic Assessment
834.2 Advantages of Solar Energy
25010.3.12 Assessment of Barriers and Risks
844.2.1 Strongest Defendant Against Global Warming
25110.3.13 Conclusions and Recommendations
854.2.2 Applicable At The Lowest Requirements
25210.4 Contribution of Solar Power in daily activities
864.2.3 Provide High Returns On Investment
25310.4.1 The Future of Solar Cells
874.2.4 Ever-growing Advancements In The Field
25410.4.2 Contactless Dispensing Process in Solar Cell Manufacturing
884.2.5 Protects From Grid Vulnerabilities
25510.4.3 Transparent Solar Cells
894.2.6 Production At Peak Times
25610.4.4 Record Efficiency for Multi-Junction Solar Cell Grown on Silicon Substrate
904.2.7 Storing Energy Is Becoming Affordable
25710.5 Molecule Captures and Stores Energy for up to 18 Years
914.2.8 Helps In Case Of Needs
25810.5.1 Floating Solar Farm (Aka ‘Floatovoltaics’)
924.2.9 Availing Reap Grants
25910.5.2 Bipv Solar Technology
934.2.10 The Source Of Energy Is Inexhaustible
260Increased energy efficiency
944.3 Summary
261High thermal and sound insulation
954.4 Inquiries
262Clean and free power output from the sun
964.5 References
263Decreased O&M costs (Decreased Operations and Management costs)
97Chapter 5. Farming System Technologies
264Zero carbon footprint
985.1 Intensive agriculture
26510.5.3 Solar Skins
995.1.1 Evolution
26610.5.4 Solar Fabric
100Enclosure
26710.5.5 Photovoltaic Solar Noise Barriers (Pvnb)
101Mechanization
26810.5.6 Solar Powered Roads
102Four field Crop Rotation
26910.5.7 Solar Storage
103Selective Breeding
27010.5.8 Use of Solar at Night
104Impact
27110.6 The future of solar looks bright
1055.1.2 Sustainable Intensive Agriculture
27210.6.1 Bifacial Modules
1065.1.3 Intensive Integrated Farming Systems
27310.6.2 Thin Film Solar
107Impact of Intensive Integrated Farming Systems
27410.6.3 Light Sensitive Nanoparticles
108Utilizing information for productivity
27510.7 Summary
1095.2 Crop Production System
27610.8 Inquiries
1105.2.1 Traditional System
27710.9 References
111Disadvantages
278Chapter 11. Development Of PCM Inside Protected Agriculture
112Nomadic herding
27911.1 Introduction
1135.2.2 Semi-commercial System
28011.2 The start
114Cropping System
28111.3 The practice
115Rice-based: : Types of rice-based farming system
28211.4 Results and Discussion
116Root crop-based:
28311.4.1 Water Bath Experiment
117Grain legume-based:
28411.4.2 Constant Hot Water Bath Experiment
118Mixed System
28511.4.3 Phase Changing Temperature
119Modern mixed cropping
28611.4.4 Development of Heat Exchanger
120Benefits
28711.4.5 Testing of PCM Material Inside Protected Structure
1215.2.3 Commercial System
28811.5 Use of phase change in Agriculture
122Perennial Crops
28911.6 Summary
123Mechanism
29011.7 Inquiries
124Example crops
29111.8 References
125Livestock: Benefits
292Chapter 12. Farmer’s Opinions
1265.3 Policies and Ideas
29312.1 Introduction
1275.4 Smart Farming
29412.2 Expectations
1285.4.1 Advantages Over Other Methods
29512.3 Thoughts
1295.4.2 High Tech Farming
29612.4 Key learnings
1305.4.3 Makes Accurate Weather Predictions
29712.5 The aspects of growth
1315.4.4 Well Management Of Data
29812.6 Paths to affordability
1325.4.5 Specialized Treatments To Different Plots
29912.7 Sheep farming
1335.5 Summary
30012.8 Summary
1345.6 Inquiries
30112.9 Inquiries
1355.7 References
30212.10 References
136Chapter 6. Solar Powered Greenhouses
303Chapter 13. The Upcoming Solar Revolution
1376.1 Introduction
30413.1 The environmental causes
1386.2 Greenhouse Design
30513.2 Causes
1396.3 Solar Heat Absorption
30613.3 Effects
1406.3.1 Their Orientation
30713.4 The final step
1416.3.2 Glazing
30813.4.1 Agriculture
1426.4 Storage of Heat
30913.4.2 Interdependency
1436.4.1 Storage Materialistic Requirements
31013.4.3 Power Generation
144Trombe walls
31113.5 Summary
145Phase-change materials
31213.6 Inquiries
1466.5 Active Solar Greenhouses
31313.7 References
1476.6 Wall and Floor Insulation: 6.6.1 External Insulation
314Glossary
1486.7 Greenhouse curtains
315Index
1496.8 Ventilation
316A
1506.9 Summary
317B
1516.10 Inquiries
318C
1526.11 References
319D
153Chapter 7. Solar Sprayers
320E
1547.1 Sprayers
321F
1557.2 Types of Sprayers
322G
1567.2.1 Hand Driven Sprayer
323H
1577.2.2 Fuel Operated Sprayer
324I
1587.2.3 Foot Operated Sprayer
325L
1597.2.4 Rocker Sprayer
326M
1607.2.5 High-pressure Power Sprayer
327N
1617.3 Types and uses of Pesticides
328O
1627.3.1 Insecticides
329P
1637.3.2 Herbicides
330R
1647.3.3 Fungicides
331S
1657.3.4 Rodenticides
332T
1667.3.5 In Relation To Farms
333V
1677.4 Goals
334W
