Nested Material Containers With Removable Caps for Leak Control
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Solution Overview
Problem
Current nested container systems face challenges such as leakage and spillage during transportation, difficulties in cleaning due to intricate shapes or narrow openings, inefficient stacking leading to wasted storage space, material compatibility issues, and environmental impact from single-use containers.
Innovation Solution
The development of angled containers with planar and arcuate walls, compression ribs for increased load bearing, removable cap assemblies, and stacking features like locating bosses and recessed tunnels to enhance stability and efficiency, along with the use of sustainable materials.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Volume of moving object
If nested containers are designed with intricate shapes or narrow openings, then they can fit together more precisely and efficiently, but cleaning becomes difficult and hygiene issues arise
Solution Approach 1:
The container is divided into separable components including a removable cap assembly and distinct body sections. This segmentation allows the container to be disassembled for thorough cleaning of internal surfaces that would otherwise be difficult to reach, while maintaining the nested configuration for efficient storage when assembled.
Solution Approach 2:
The container features dynamic elements such as removable caps and flexible sealing mechanisms that can be opened and closed. This dynamic design enables easy access to the interior for cleaning purposes while maintaining a compact, efficient nested structure during storage and transport.
2Reliability
If nesting containers are made with secure sealing mechanisms, then leakage and spillage during transportation are prevented, but the containers become more complex and harder to clean
Solution Approach 1:
The sealing mechanism is extracted as a separate, removable cap assembly that can be detached from the main container body. This allows the sealing components to be accessed, cleaned, and maintained independently, reducing the overall complexity of cleaning the entire container system while maintaining reliable sealing during transport.
Solution Approach 2:
The cap assembly is designed with pre-configured sealing surfaces and attachment mechanisms that ensure reliable sealing before the container is put into service. This preliminary preparation of sealing components simplifies the overall system by ensuring sealing reliability is built-in rather than requiring complex adjustment mechanisms.
3Volume of moving object
If containers are designed for efficient stacking, then storage space is optimized, but stability during stacking may be compromised
Solution Approach 1:
The container features asymmetric design elements including offset stacking surfaces and non-symmetric geometric shapes that interlock when stacked. This asymmetric configuration achieves efficient space utilization while ensuring stability during stacking, as the asymmetric surfaces prevent lateral movement and provide a stable base for each container level.
Solution Approach 2:
The stacking mechanism incorporates features that extend into multiple dimensions, with interlocking surfaces that engage both vertically and laterally. This multi-dimensional engagement ensures that containers are stable when stacked while maintaining compact storage space, as the dimensional interlocking prevents shifting in any direction.
Data Source
AI summary
Containers and container systems for transporting and storing materials are described. The containers are configured to enable efficient placement within a larger vessel, while maintaining sealed separation between contents of each respective container.