Stackable Plant Tower Water Distribution via Nested Funnels
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Solution Overview
Problem
Existing plant container modules lack a comprehensive water management system for efficient water distribution and drainage in vertically stacked configurations, particularly missing an upper member for catching rain or poured water and a water tray with weep holes to manage water flow.
Innovation Solution
The design incorporates a water bowl with weep holes and an inverted funnel-shaped member that directs water flow through a series of water trays, allowing water to be distributed evenly across stacked plant container modules, with each module featuring drainage holes and a funnel extension for fluid communication, ensuring efficient water distribution and management.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Volume of moving object
If plant container modules are designed to be stackable for vertical arrangement, then space utilization is improved, but water distribution and drainage management becomes complex
Solution Approach 1:
The patent implements nesting by placing an inverted funnel-shaped member inside the plant container module, with the funnel extending through the bottom wall. Water trays are positioned within the modular structure, creating a nested arrangement where multiple functional elements are contained within each other. This nested configuration enables vertical stacking while integrating water distribution and drainage functions within the compact modular unit, resolving the contradiction between space utilization and system complexity.
Solution Approach 2:
The patent divides the water management system into segmented functional components: an upper member (funnel) for catching and directing water, water trays for distribution, and drainage holes for drainage. Each component performs a specific function in the water management sequence, allowing the system to handle complex water distribution requirements through simple, modular segments that can be stacked vertically.
2Device complexity
If plant container modules are designed for nesting to reduce storage and shipping complexity, then storage efficiency is improved, but water flow management structure is compromised
Solution Approach 1:
The inverted funnel-shaped member is nested within the plant container module, with its outlet positioned to engage with water trays. This nested arrangement maintains the water flow path from the funnel through the water trays to the drainage holes, ensuring reliable water distribution even in the compact nested configuration. The nesting design preserves functional integrity while reducing storage and shipping complexity.
Solution Approach 2:
The water tray acts as an intermediary element between the inverted funnel and the plant medium. It receives water from the funnel outlet and distributes it across the plant container through weep holes, ensuring proper water flow management. This intermediary component maintains reliable water distribution by mediating the transition from concentrated funnel outlet to distributed plant watering, even in the nested configuration.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This solution enables efficient water distribution and management in a vertically stacked plant tower, ensuring plants receive the necessary water while preventing waterlogged soil, enhancing plant growth and reducing storage and shipping complexity by allowing modules to nest and stack seamlessly.
Implementation Method 1
The inverted funnel shaped member cooperates with and is in fluid communication with a water tray defining a diffusing member
Implementation Method 2
a water tray having weep holes for managing the flow of water through the stacked plant tower
Implementation Method 3
drainage holes disposed in the bottom wall
Data Source
AI summary
The stackable plant container module is adapted such that a plurality of plant container modules will nest together for storage and/or shipping while allowing the plant container modules to be stacked vertically into a multi-level plant tower. The stacked plant tower includes a water bowl, defining a reservoir for receiving water, carried by the upper most plant container module, and a water tray disposed between stacked plant container modules. The stacked plant tower is adapted such that the water bowl is in fluid communication with each water tray, such that the stacked plant tower incorporates structure for managing the flow of water through the stacked plant tower.