High-Density Cultivation System with Hybrid Network Communication, AI-Enhanced Monitoring, Nano Size Fogging Carbon dioxide Delivery, Smart Ventilation, Growth Lighting Control, Smart Dripping, and Regular Automation or AI Irrigation Systems

Smart overview of the Invention

The invention introduces a high-density cultivation system featuring versatile racks that can be configured as fixed, mobile, or modular units. These racks are designed to optimize space and can accommodate multiple layers for growing strawberries, leafy greens, herbs, fruits, and flowers. They may include wheels or rails for enhanced mobility. This system integrates a hybrid network communication framework that utilizes Wi-Fi, thread, Bluetooth, Bluetooth mesh, PLC, and other industrial networks to ensure seamless connectivity between sensors, cameras, controllers, AI modules, and user interfaces.

AI-enhanced monitoring is a core component, utilizing cameras and sensors to perform real-time plant growth analysis. This enables the automated detection of pests, harmful insects, or diseases, facilitating precise adjustments through either regular automation or AI-based control methods. The system also features a nano size fogging CO2 delivery mechanism, using ultrasonic or similar devices to enhance photosynthesis. A smart ventilation system maintains optimal temperature, airflow, humidity, and atmospheric composition.

Growth lighting is provided by adjustable-spectrum LED arrays capable of emitting combinations of red, blue, white, far-red, and UV light. These lights can be controlled manually, via preprogrammed automation, or through AI-driven algorithms to optimize plant growth conditions. The irrigation and nutrient delivery system employs a smart dripping mechanism, operable by regular automation or AI, to deliver water and nutrients at optimal intervals and quantities directly to plant roots.

Interactive robotic units may be integrated into the system for pollination and targeted pest and disease management using deep UV emitters. These robotic functions enhance operational efficiency, biosecurity, and productivity. Collectively, these features provide a comprehensive and adaptable solution for controlled-environment agriculture, ensuring improved plant health, higher yields, and efficient resource utilization.

In summary, the invention presents a sophisticated cultivation system that combines cutting-edge technology and AI to address the limitations of traditional systems. It offers an integrated approach to plant growth management, environmental control, and resource optimization, making it a valuable tool for modern agriculture.