Solar Photovoltaic Fishing Lighting

Does fishery complementary photovoltaic (FPV) power plant affect radiation and energy flux?

Meanwhile, the underlying surface of PV in land is significantly different from those in lake. The fishery complementary photovoltaic (FPV) power plant is a new type of using solar energy by PV power plant in China. The studies of the impact of FPV on the balance of both radiation and energy flux have been less presenting.

Where is China's largest fishery & photovoltaic power project located?

China has built its largest fishery and photovoltaic complementary power project in the city of Wenzhou in eastern Zhejiang Province. The Taihan project covers a surface area of approximately 4.7 square kilometers, with photovoltaic power generation on top and fish farming underneath.

Are fishery complementary photovoltaic power plants a new surface type?

The deployment of photovoltaic arrays on the lake has formed a new underlying surface type. But the new underlying surface is different from the natural lake. The impact of fishery complementary photovoltaic (FPV) power plants on the radiation, energy flux, and driving force is unclear.

Does Floating photovoltaic power station affect aquatic environment?

Floating photovoltaic (FPV) is a new form of renewable energy generation. However, the impact of FPV on the aquatic environment is still unclear. By long-term empirical monitoring and data analysis, this paper reveals the shading effect of large-scale FPV power station on aquatic environment for the first time.

What is Floating photovoltaic (FPV)?

Floating photovoltaic (FPV), as a new power generation method using idle lakes, reservoirs, ponds and subsidence waters, has become a viable alternative, especially in countries or regions with high population density and land scarcity (Padilha Campos Lopes et al., 2022).

How does Fishery and photovoltaics integration work?

However, in the “fishery and photovoltaics integration” project, a large amount of nitrogen, phosphorus and potassium are discharged into the water area, which will significantly increase the concentrations of nutrients and algae. In addition, significant biofouling is observed at the interface between the buoy and water (Fig. 5 c1–c2).