Insulating device and method for forming insulating device
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Solution Overview
Problem
Conventional coolers lack an effective solution for maintaining the temperature of contents over an extended period while being portable and waterproof, especially when subjected to various orientations or inverted positions.
Innovation Solution
The design incorporates a waterproof closure, an outer shell, an inner liner, and a freely floating insulating layer between the two, with the insulating layer being made of a closed-cell foam to maintain temperature and prevent liquid leakage, and features such as handles and straps for enhanced portability.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Temperature
If a conventional cooler design is used, then portability is achieved, but temperature maintenance over extended periods and waterproof performance are compromised
Solution Approach 1:
The cooler is divided into distinct functional layers: an outer shell for structural integrity, a middle insulation layer for thermal management, and an inner waterproof liner for liquid containment. This segmentation allows each layer to optimize its specific function without compromising the others, achieving both temperature maintenance and waterproof reliability.
Solution Approach 2:
The cooler employs composite construction combining rigid outer shell material (for durability and structure), insulating material (for thermal isolation), and waterproof liner material (for liquid resistance). This multi-material composite approach resolves the contradiction by integrating the strengths of different materials to achieve both thermal performance and waterproof reliability simultaneously.
2Ease of operation
If the cooler is designed for portability with handles and straps, then ease of carrying is improved, but structural integrity and waterproof sealing may be compromised
Solution Approach 1:
The cooler incorporates removable and adjustable carrying components (handles and straps) that can be configured or removed based on transport needs. This dynamic design allows the cooler to maintain structural integrity when carried while preserving the ability to adapt to different portability requirements, without permanently compromising the waterproof sealing through fixed attachment points.
3Stability of the object's composition
If the insulating layer is attached to the shell and liner, then structural stability is improved, but thermal performance and waterproofing are reduced
Solution Approach 1:
The insulating layer is extracted from direct attachment to the shell and liner, allowing it to float freely within the cooler cavity. This extraction eliminates thermal bridges that would conduct heat between the outer shell and inner liner, thereby improving thermal performance. The insulation remains structurally stable through its positioning within the cavity rather than through rigid attachment.
Solution Approach 2:
The freely floating insulating layer acts as an intermediary between the outer shell and inner liner, providing thermal isolation without direct physical connection. This intermediary positioning prevents heat transfer pathways while maintaining the structural framework of the cooler, resolving the contradiction between structural stability and thermal performance.
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
The solution effectively keeps contents cool or warm for an extended period, maintains water resistance in any orientation, and withstands inversion without leakage, while being lightweight and easy to carry.
Implementation Method 1
an insulating layer (502) positioned in between the inner liner (500) and the outer shell (501)... the insulating layer being made of a closed-cell foam to maintain temperature
Data Source
AI summary
An insulating device can include an aperture having a waterproof closure which allows access to the chamber within the insulating device. The closure can help prevent any fluid leakage into and out of the insulating device if the insulating device is overturned or in any configuration other than upright. The closure may also prevent any fluid from permeating into the chamber if the insulating device is exposed to precipitation, other fluid, or submersed under water. This construction results in an insulating chamber that is substantially impervious to water and other liquids when the closure is sealed.