Plant Cultivation Platform for Method Selection
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Solution Overview
Problem
Current methods lack a platform for selecting an optimal plant cultivation process, leading to inefficiencies in food production and increased hunger and malnutrition globally, as existing research does not provide a systematic approach for comparing different cultivation methods.
Innovation Solution
A system comprising water supply units, water treatment, nutrition units, gas supply units, a reactor, growth boxes, and an information device that allows participants to control and compare aeroponic, drip irrigation, and hydroponic methods for plant cultivation, enabling the selection of the best cultivation method through competitions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional plant cultivation research is conducted without a systematic selection platform, then individual research efforts can be made, but the ability to compare and select optimal cultivation methods is lost, leading to inefficiency in food production
Solution Approach 1:
The system divides plant cultivation research into separate, independent growth boxes, each dedicated to a specific cultivation method (aeroponics, hydroponics, drip irrigation). This segmentation allows parallel experimentation and systematic comparison of different methods without interference, enabling efficient selection of optimal cultivation approaches while maintaining organized, manageable research units
Solution Approach 2:
The cultivation system is designed as a universal platform that can accommodate multiple cultivation methods simultaneously within a single facility. Each growth box is equipped with standardized components (water treatment units, nutrient solutions, environmental controls) that can support different cultivation techniques, allowing the system to serve multiple research purposes and enable comprehensive method comparison
2Loss of time
If multiple cultivation methods are tested simultaneously without remote control capability, then direct observation and control are possible, but experimental costs and time consumption increase significantly
Solution Approach 1:
The system introduces remote control units and automated control systems as intermediaries between the researcher and the physical cultivation environment. These intermediaries enable researchers to monitor and adjust cultivation parameters (water flow, nutrient concentration, environmental conditions) from remote locations, eliminating the need for constant physical presence while maintaining precise control over experimental conditions
Solution Approach 2:
The cultivation system incorporates automated monitoring and feedback mechanisms that continuously track plant growth parameters, nutrient solution levels, and environmental conditions. This feedback enables the system to automatically adjust cultivation parameters and alert researchers to significant changes, reducing the need for manual intervention and enabling efficient long-term experiments
3Adaptability or versatility
If local climate conditions dictate cultivation method selection, then adaptation to local environments is achieved, but global applicability of optimal cultivation methods is limited
Solution Approach 1:
The system enables systematic variation of cultivation parameters (water flow rates, nutrient concentrations, environmental conditions) across different growth boxes to determine optimal settings for each cultivation method. By identifying parameter ranges that maximize plant growth and productivity for each method, the system establishes adaptable cultivation protocols that can be adjusted to different climate zones, enabling global application while maintaining local optimization
Data Source
AI summary
A plant growing system includes a growth medium preparation unit and a plant growing unit. The growth medium preparation unit includes a supply of water that feeds water through a water treatment unit, a nutrition module, and a reactor sub-system to have the water treated and modified and added with nano-elements and other nutrition components to provide a nutrition formula. The nutrition formula is supplied to the plant growing unit that includes a growing box inside which a tank is provided for receiving and holding the nutrition formula. A plant plate is disposed on the tank and is formed with at least one through opening for receiving and holding a plant. The root of plant is allowed to extend into the nutrition formula inside the tank, while the stem of the plant is growing in a void space above the plant plate and inside the growing box.