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Progress in floating photovoltaic systems / Marco Rosa-Clot and Giuseppe Marco Tina.

Knovel Mechanics & Mechanical Engineering Academic Available online

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Format:
Book
Author/Creator:
Rosa-Clot, Marco, author.
Marco Tina, Giuseppe, author.
Language:
English
Subjects (All):
Photovoltaic power generation.
Physical Description:
1 online resource (222 pages)
Edition:
First edition.
Place of Publication:
Amsterdam, Netherlands : Elsevier, [2025]
Summary:
Progress in Floating Photovoltaic Systems reflects the huge growth underway in floating photovoltaic (PV) systems, covering the latest technologies, new ideas, and practical solutions--currently available in the sector--to support further development and implementation.This book begins by introducing floating PV, its potential, and its role as.
Contents:
Front Cover
Progress in Floating Photovoltaic Systems
Copyright Page
Contents
List of contributors
About the authors
1 Third pillar of photovoltaics: floating photovoltaics
Evolution of electric energy market up to 2023 and projections for 2030
Hydroelectric sector
Wind sector
Concentrated solar power sector
Biofuel and geothermal energy
Renewable energy sources and photovoltaic sector
Main challenge for renewable energy sources: problem of intermittency
Forecast for floating photovoltaics
Photovoltaic utility-scale and rooftop systems: is floating photovoltaics the third pillar?
New York
Rome
Beijing
Advantages and limitations of floating photovoltaics
Advantages of floating photovoltaics
No land occupancy
Limiting greenhouse and albedo effects
Hybrid systems and coupling to wind and hydroelectric power plants
Reduction of specific energy costs
Installation and decommissioning
Water saving
Cooling and tracking
Biofouling control
Limitations of floating photovoltaics
Photovoltaic module lifecycle
Disasters due to wind gusts or waves
Birds and aquatic soiling
Conclusion
References
2 Floating structures material and design
Class 1: HDPE pipes plus metal elements
Advantages
Disadvantages
Class 2: Full plastic rafts supporting a single photovoltaic module
Class 3: Photovoltaics supported by pontoons
Class 4: Submerged and membrane floating photovoltaics
Submerged photovoltaic modules
Semisubmerged systems
Flexible floating photovoltaic solutions
Membranes supporting photovoltaic modules
Class 5: Bifacial modules and photovoltaic sails for shallow water and nearshore plants
Bifacial modules
Photovoltaic sail on poles/minipiles wind direction oriented
Fixed sails with vertical bifacial photovoltaic modules.
Appendix 1: Accidents due to wind gusts in FPV plants
3 Tracking systems for floating photovoltaics
Introduction
Advancements in FPV tracking systems: challenges, solutions, and future directions
Vertical axis tracking
Vertical axis tracking inside a confinement structure
Vertical axis tracking with a partial confining structure
Vertical axis tracking without a confining structure
Horizontal axis trackers
Tracking floating photovoltaic energy performance analysis
Sites and photovoltaic systems data
Thermal losses
Horizontal axis tracker North-South
Economical comparison of tracking floating photovoltaic
Methodology
CAPEX
Revenues
OPEX
Levelized cost of energy
Sensitivity of levelized cost of energy
4 Mooring systems for floating photovoltaics
Premise
Mooring systems
Rigid mooring systems
Taut mooring systems
Catenary mooring systems
Compliant mooring systems
Examples of existing mooring systems
Design parameters for reliable mooring applications
Taut elastic mooring systems
Viscoelastic properties
Composite elastomers
Reliable mooring systems for floating photovoltaic plants
5 Hydroelectric coupling with floating photovoltaics
Hydroelectric power plants versus solar photovoltaics
Why this slowdown?
Maturity of technology
Environmental impact
Comparison with wind and photovoltaic technologies
Decreasing equivalent hours for hydroelectric power plants
Advantages of coupling floating photovoltaic and hydroelectric power plant systems
Grid connection
Reduction of power fluctuation
Installation and management
Hybrid FPV-HPP and power and energy density
Worldwide analysis.
Future trends, sustainable potential, and hidden opportunities for hydropower sector in European Union
Conclusions
6 Wind load and snow impact on floating photovoltaics
Qualitative analysis of computational fluid dynamics: a naive physical approach
Drag coefficient
Full plant
Numerical simulation of computational fluid dynamics
CFD simulations: results for South-oriented tilted PV platform with 50 m/s wind coming from the rear
Velocity analysis
CFD Simulations: results for gable structure with wind at 0 and 45 degrees
Wind at zero degrees
Wind at 45 degrees
Cut plot-vorticity and relative pressure
Rafts: global forces acting
Snow management
Adding ohmic resistance to photovoltaic modules
Direct current on photovoltaic diodes
Using hot air for heating
Cold water as thermal source
Ice melting
Snow melting
7 Offshore solutions for floating photovoltaics
Wave impact and wave load
Proposed solutions
Small size pontons solutions
Large pontoons following wave motions
Large pontoons raised above sea level
Photovoltaics Sails: vertical photovoltaic modules on buoy (Tina et al., 2024)
Photovoltaics sails: vertical photovoltaic modules on rafts
8 Measurements on floating photovoltaic plants
Albedo
Photovoltaic module temperature
Cooling
Testbed description
Description of photovoltaic systems
Performance indexes
Energy
Energy yield of photovoltaic array
Reference yield
Performance ratio
Results of tests conducted on floating photovoltaic systems
Ground versus floating photovoltaic systems
Portrait versus landscape
Tracker versus gable
9 Impact of floating photovoltaics on the inland aquatic ecosystem.
Introduction
Sandpit lakes
Food web: eat and be eaten
Phytoplankton and zooplankton
Aquatic vegetation
Macrofauna
Fish
Birds and bats
Observations-monitoring
Impact on oxygen and photosynthesis
Light availability
Oxygen concentration
Chlorophyll-a
Impact on stratification
Impact on evaporation
Other observations
Modeling
0D models
1D models
2D models
3D models
Effects on thermal stratification
Recommendations
Knowledge gaps
Acknowledgments
10 Economic and financial analysis of floating photovoltaics
Components of floating photovoltaic plants
Investment cost and environmental impact of floating photovoltaic plants
Available surface and preparation
Electric material costs
Supports of land-based photovoltaics and floating photovoltaics (CAPEX)
Class 1
Class 2
Class 3 and Class 4
Human work for assembly and connection operation
Managing and decommissioning
Index
Back Cover.
Notes:
Includes bibliographical references and index.
Description based on publisher supplied metadata and other sources.
Description based on print version record.
ISBN:
9780443219733
0443219737
9780443219726
0443219729
OCLC:
1500483552

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