By
Agri Business Review | Tuesday, April 15, 2025
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FREMONT, CA: Artificial intelligence (AI) transforms indoor farming into a more energy-efficient and sustainable practice by optimising climate control, lighting, and resource management. It reduces energy consumption, supports long-term sustainability and improves crop productivity.
Climate Control Optimisation
One of the most energy-intensive aspects of indoor farming is climate control. Traditional systems that manage temperature, humidity, and ventilation can consume vast amounts of electricity, especially in facilities operating year-round. AI can optimise these systems by analysing real-time data from various sensors placed throughout the facility. These sensors monitor environmental parameters, including temperature, humidity, and air quality, while AI algorithms adjust the climate in real-time to meet the plants’ needs without wasting energy.
AI-powered systems can determine the precise heating or cooling required based on external weather conditions, crop types, and growth stages. Instead of keeping the entire farm at a uniform temperature, AI enables micro-climate zones that ensure each plant receives the ideal conditions for growth while minimising unnecessary energy use. This level of precision cuts down on electricity usage and improves plant health and productivity.
Lighting and Photosynthesis Efficiency
Lighting is another significant energy drain in indoor farming, particularly in facilities that rely on artificial light to supplement or replace natural sunlight. AI can optimise lighting systems by controlling light exposure intensity, spectrum, and duration based on plant requirements at different growth stages. Advanced AI algorithms can determine when and how much light is needed for optimal photosynthesis, reducing unnecessary light usage and the associated energy costs.
Also, AI can synchronise lighting schedules with off-peak energy hours, allowing farms to use lower electricity rates. This capability is especially beneficial in regions where energy prices fluctuate throughout the day, helping farms minimise operational costs while maintaining high crop yields. AI-driven lighting systems can also adjust to changes in plant health, ensuring energy on over-illuminating or under-illuminating crops.
Water and Nutrient Management
Efficient water and nutrient management are essential for reducing energy consumption in indoor farming. AI-driven irrigation systems can analyse plant data to determine the water and nutrients needed. By delivering these resources precisely when and where required, AI helps prevent over-watering, conserve water, and reduce the energy costs associated with water pumping and filtration.
AI can also automate the nutrient delivery process, ensuring that plants receive the correct balance of nutrients based on their growth stage and environmental conditions. By minimising waste and maximising nutrient absorption, AI reduces the need for manual intervention and the energy required to maintain optimal growing conditions.
Predictive Maintenance and Energy Demand Forecasting
In addition to optimising day-to-day operations, AI can reduce energy consumption through predictive maintenance and demand forecasting. AI systems can monitor equipment performance and predict when maintenance is needed, preventing energy inefficiencies caused by malfunctioning or underperforming systems.
Moreover, AI-powered predictive analytics can forecast energy needs based on historical data, current conditions, and future weather patterns. It allows indoor farms to plan their operations around periods of lower energy demand or availability of renewable energy sources, such as solar or wind power. By aligning energy-intensive tasks like lighting and nutrient distribution with times of greater energy efficiency, AI helps indoor farms reduce their overall energy footprint.
AI-driven indoor farming addresses the energy challenge and supports sustainable growth practices that are critical for the future of agriculture. As indoor farming continues to expand, the role of AI in energy optimisation will become increasingly vital in transforming the industry.