Horticultural Control System for Adaptive Water Distribution
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Solution Overview
Problem
Current horticultural irrigation systems are inadequate for managing the diverse water needs of multiple plant species in close proximity, as they typically rely on single-source water supply and evapotranspiration models, which can lead to inadequate watering during droughts and water restrictions, especially in residential settings with varied plant species.
Innovation Solution
A horticultural control system comprising data storage devices, a planning process, and a processor unit that utilizes a knowledge base to identify and manage the specific needs of each plant species, allowing for precise water application from various water sources, including rain barrels and grey water, to optimize water use based on real-time conditions and restrictions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a single-source water supply system is used for irrigation, then the system is simple to operate, but it cannot meet the diverse water needs of multiple plant species during water restrictions
Solution Approach 1:
The system divides the water supply into multiple independent sources (municipal water, rain barrels, grey water systems) that can be selectively activated. Each water source is managed separately with its own storage and distribution infrastructure, allowing the system to adapt to different water availability conditions without requiring complete system redesign.
Solution Approach 2:
The irrigation system is designed to handle multiple water sources through a universal distribution network that can accept and distribute different types of water (potable, rainwater, grey water) to various plant zones. The system performs multiple functions including water storage, filtration, pumping, and distribution through a single integrated platform.
2Adaptability or versatility
If evapotranspiration models are used for water application, then the irrigation approach is simple and homogeneous, but it is inadequate for yards and gardens with numerous plant species in close proximity
Solution Approach 1:
The system applies different irrigation strategies and water quantities to different plant zones based on their specific needs. Trees and shrubs in high-water-demand zones receive different treatment compared to plants in low-water-demand zones. Each zone is configured with specific plant species information, water requirements, and irrigation schedules tailored to local conditions.
Solution Approach 2:
The irrigation management system dynamically adjusts water application based on real-time conditions including soil moisture sensors, weather data, and plant-specific requirements. The system can modify irrigation schedules, water quantities, and source selection in response to changing environmental conditions and plant needs, transitioning from static evapotranspiration-based scheduling to adaptive control.
3Loss of energy
If water restrictions are implemented during droughts, then water conservation is improved, but plant water needs may not be met adequately
Solution Approach 1:
The system collects and stores rainwater in barrels and cistens during periods of water abundance and before restrictions are imposed. Grey water from household sources is captured and stored in advance for later irrigation use. This preliminary water accumulation ensures that sufficient water reserves are available when municipal water restrictions are implemented, maintaining plant water needs without violating conservation measures.
Solution Approach 2:
The system introduces alternative water sources (rain barrels, grey water systems) as intermediaries between the limited municipal water supply and the plants' water needs. These intermediary storage and distribution systems buffer the impact of water restrictions, allowing continuous irrigation during drought periods by mediating between restricted supply and sustained demand.
Data Source
AI summary
Therefore, the illustrative embodiments provide an apparatus for performing horticultural tasks. In an illustrative embodiment, an apparatus is comprised of a number of data storage devices, a planning process, and a processor unit. The number of data storage devices includes a knowledge base. The processor unit executes the planning process and accesses the knowledge base on the number of data storage devices to identify a horticultural need for a plurality of plants.


