This article describes floating PV (FPV) plants on water bodies such as a dams, reservoirs, and canals. It also describes hybrid technologies including: FPV + hydro systems, FPV + pumped hydro, FPV + wave energy converter, FPV + solar tree, FPV + tracking, FPV + conventional power, FPV + hydrogen.
Tag Archive for: AgriSolar
The report concerns the photovoltaic geographic potential (PVGP), defined as the fraction of the solar irradiation received on the land available for a photovoltaic facility, and applicability to the analysis of floating photovoltaic (FPV) structures.
This U.S. Department of Energy’s Water Power Technologies Office report describes marine and coastal opportunities for which marine energy could fulfill those energy needs. The major finding is that there are more markets with potential than anticipated, both for Power at Sea (including ocean observation and navigation, underwater vehicle charging, marine aquaculture, marine algae, and seawater mining), and Resilient Coastal Communities (including desalination, coastal resiliency and disaster recovery, and community-scale isolated power systems).
In this study, an open-source, after-market distributed manufacturing method is proposed to be applied to large flexible PV modules to make flexible FPV systems. The results of this preliminary study indicate that foam-backed FPV is exceptionally promising and should be further investigated with different foams, larger systems and more diverse deployments for longer periods to increase PV deployments.
This report project describes the design and development of a dedicated GIS toolset to determine the environmental feasibility around the use of floating solar systems in agricultural applications in South Africa.
This article concerns the technical and financial aspects of installing solar PV over water reservoirs, with a pilot study in Spain.
This 2017 article provides and overview of aquavoltaic projects, including solar PV installed over canal tops, water bodies, lakes, dam backwater and reservoirs.
This article describes concepts and designs of a photovoltaic system for harvesting salt and electricity at salt farm floor, with attention given to waterproofing, salt resistance, material and electrical safety, maintenance, and economic feasibility. The authors found that the power generation of the salt-farm parallel system is comparable to that of conventional solar power plants and that the cooling effect by seawater contributes more to the increase in the crystalline silicon photovoltaic module performance than does the absorption loss due to seawater by maintaining a certain height above the module.
This paper reviews the fields of floatovoltaic (FV) technology (water deployed solar photovoltaic systems) and aquaculture (farming of aquatic organisms) to investigate the potential of hybrid floatovoltaic-aquaculture synergistic applications for improving food-energy-water nexus sustainability. In addition, several other symbiotic relationships are considered including an increase in power conversion efficiency due to the cooling and cleaning of module surfaces , a reduction in water surface evaporation rates, ecosystem redevelopment, and improved fish growth rates through integrated designs using FV-powered pumps to control oxygenation levels as well as LED lighting.
This North Dakota State University Extension publication provides an introductory checklist of energy efficiency opportunities for greenhouses. The checklist includes air leaks, double covering, energy conserving curtain, foundation and sidewall insulation as well as space utilization.