Collapsible Metal Planter Assembly With Self-Aligning Wall Sections
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing collapsible metal planters have thin walls, making them prone to damage during transport and assembly, require numerous pieces for assembly, and lack sufficient weight to support taller plantings in outdoor environments, complicating inventory, packaging, shipping, and single-person assembly.
Innovation Solution
A collapsible metal planter design featuring thicker walls, minimized number of pieces for assembly, self-alignment of side portions for easy fastening, and sufficient weight to withstand outdoor conditions, with V-shaped notches and tabs for secure assembly without the need for extensive threading or additional components.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Strength
If metal planters are welded to form a rigid structure, then strength and stability are improved, but difficulty and cost of packaging, storage, shipping, and transport increase
Solution Approach 1:
The planter is divided into multiple separable wall sections that can be independently handled, packaged, and assembled. Each wall section includes integrated fastening features that allow simple connection without welding, resolving the contradiction between structural integrity and assembly simplicity.
Solution Approach 2:
The fastening features are merged directly into the wall sections themselves rather than being separate components. This integration reduces the number of parts and simplifies assembly while maintaining structural strength through the combined design.
2Shape
If metal panels are bent to form walls in metal bending operations, then wall formation is achieved, but wall thickness is limited to relatively thin-walled material
Solution Approach 1:
The walls are formed by assembling multiple panel sections rather than bending a single continuous panel. This segmentation allows the use of thicker, stronger materials that would be difficult to bend, while still achieving the desired wall shape through the assembled configuration.
Solution Approach 2:
The design changes from bent thin-walled panels to assembled thick-walled panels. By altering the formation method from bending to assembly, thicker materials can be used without compromising the ability to form the required wall shapes and angles.
3Ease of operation
If thin-walled planters are used for collapsible design, then ease of assembly is improved, but resistance to shipping damage and structural stability deteriorate
Solution Approach 1:
The planter is segmented into multiple wall sections that can be easily handled and assembled, maintaining ease of operation. The segmented design with integrated fastening features allows simple assembly while using thicker, more durable materials that resist shipping damage.
Solution Approach 2:
The wall thickness parameter is increased from thin-walled to thick-walled construction. This parameter change improves durability and shipping damage resistance while the modular segmented design maintains ease of assembly through simple connection mechanisms.
4Duration of action of moving object
If multiple pieces are required for assembly of collapsible planters, then collapsibility is achieved, but inventory, packaging, and shipping complexity increase
Solution Approach 1:
The planter is segmented into a minimal number of wall sections that provide both collapsibility and structural integrity. This optimized segmentation reduces the number of pieces compared to other collapsible designs while maintaining the ability to collapse and assemble.
Solution Approach 2:
Fastening features are merged into the wall sections themselves rather than being separate components. This merging reduces the total number of pieces that need to be inventoried, packaged, and shipped, while still achieving the collapsible functionality.
5Ease of operation
If thin-walled collapsible planters are designed, then ease of assembly is improved, but weight sufficient to support taller plantings in outdoor environments is reduced
Solution Approach 1:
The planter uses segmented wall sections that can be easily handled and assembled, maintaining ease of operation. The segmented design allows use of thicker, heavier materials that provide sufficient weight for outdoor stability while keeping individual pieces manageable for assembly.
Solution Approach 2:
The wall thickness parameter is increased to provide greater weight and stability for outdoor use. This parameter change increases the overall planter weight to support taller plantings while the modular design keeps assembly straightforward through simple connection mechanisms.
Data Source
AI summary
The present invention discloses a collapsible metal planter. The planter has a plurality of wall sections. Each wall section side portion has a first end portion and an opposing second end portion. The end portions are angularly disposed inwards. Each first end portion has a first edge with a V-shaped notch positioned in vertical orientation. Each second end portion has a second edge with a V-shaped notch positioned in vertical orientation opposite to that of the first edge notch. The first edge notch and second edge notch form a square orifice when the first end portion of a wall section is placed in abutment with the second end portion of an adjacent wall section. The square orifice is receivable of a fastener to secure the adjacent wall sections together.