Smart Agriculture

Photovoltaic smart agriculture is a new agricultural model that combines photovoltaic power generation technology with modern smart agriculture. It is a deep integration and innovative upgrade of traditional agriculture. This model realizes the composite utilization of "upper power generation and lower planting or breeding" by building photovoltaic power generation systems in agricultural production areas. It integrates power generation, breeding and intelligent management. While improving the comprehensive utilization efficiency of land, it also promotes the greening, intelligence and sustainable development of agriculture. With the advancement of my country's "carbon peak and carbon neutrality" strategy, photovoltaic smart agriculture is gradually becoming an important direction for promoting the integrated development of agriculture and energy.

※ Components

Photovoltaic power generation system
The photovoltaic system is the energy basis of this model, mainly composed of photovoltaic modules, support systems, inverters, grid-connected control equipment, energy storage systems and power transmission and distribution lines. Photovoltaic modules are usually installed above farmland, greenhouses, farms or waters, and collect sunlight and convert it into electrical energy for the power supply required for agricultural production, or transmit it to the power grid.

Smart agricultural system
The smart agricultural system integrates technologies such as the Internet of Things, cloud computing, big data, and artificial intelligence, and mainly includes:
Environmental monitoring system: real-time collection of air temperature and humidity, soil moisture, light intensity, CO₂ concentration and other data;
Smart irrigation and fertilization system: automatic adjustment of water and fertilizer supply based on environmental data to achieve precise control;
Video monitoring and pest warning system: use cameras and AI to identify and analyze crop growth status and disease signs;
Remote control platform: remote monitoring and management of agricultural facilities through mobile phones or computer terminals;
Big data analysis system: modeling and analysis of historical data to provide support for agricultural decision-making.

※ Advantages
Improve land use efficiency
Photovoltaic smart agriculture realizes the multiple uses of the same piece of land, that is, "power generation on top, planting on the bottom" or "power generation on top, breeding on the bottom". Without changing the nature of agricultural land, the output value per unit area of ​​land can be effectively improved.

 
Promote energy conservation and carbon reduction in agriculture
Using solar energy, a clean energy, to replace coal-fired power or diesel power generation commonly used in agricultural electricity not only reduces energy costs, but also reduces greenhouse gas emissions, which is in line with sustainable development and the "dual carbon" strategic goals.

 
Improve the level of agricultural intelligence
The introduction of intelligent monitoring and data analysis systems makes agricultural planting and breeding more precise and scientific. Farmers can respond quickly to agricultural activities based on real-time data, improve production efficiency and crop quality.

 
Improve the agricultural ecological environment
Photovoltaic panels form a certain shading effect above crops, which helps to regulate surface temperature, reduce water evaporation, and inhibit weed growth. At the same time, they can also resist the damage to crops caused by extreme weather such as wind, sand, and hail, and build a more stable microecological environment.

 
Increase farmers' economic benefits
On the one hand, farmers can get extra income by selling electricity; on the other hand, smart agriculture can significantly reduce production costs such as labor, water, fertilizer, and pesticides, and improve economic benefits. Some projects also drive rural employment and help rural revitalization.

 
Adapt to a variety of application scenarios
Photovoltaic smart agriculture can flexibly adapt to different regions and industry types, such as:
Agricultural photovoltaic complementarity: suitable for planting Chinese herbal medicine, vegetables, fungi and other crops with moderate light requirements;
Fish photovoltaic complementarity: build photovoltaic panels above fish ponds and reservoirs to achieve "water power generation and underwater fish farming";
Pastoral photovoltaic complementarity: set up photovoltaic panels in pastoral areas to protect livestock from heat and heavy rain;
Photovoltaic greenhouse: combine photovoltaic power generation with modern greenhouse planting to achieve intelligent environmental control.

※ Application