Stackable Insulating Element with Interlocking Caps
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Solution Overview
Problem
Existing insulating elements for sealing and reinforcing cavities in motor vehicles are inefficiently packed and transported, leading to increased costs and damage during transport, and difficulty in automated attachment to structural elements.
Innovation Solution
A stackable insulating element design featuring a carrier with expandable material and caps that engage when stacked, allowing for secure, space-efficient packing and transportation, and facilitating automated attachment through robotic manipulation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If insulating elements are transported loosely in containers, then they can be easily loaded and unloaded, but they come into contact many times causing damage and cannot be packed efficiently
Solution Approach 1:
Multiple insulating elements are merged into a single stacked unit through the engagement of caps and recesses, forming a stable assembly that reduces individual element movement and contact during transport, thereby minimizing damage while maintaining ease of handling as a unified structure
Solution Approach 2:
Insulating elements are nested vertically through cap-to-recess engagement, with each element fitting into the structure of the adjacent element, creating a compact stacked arrangement that maximizes space efficiency and protects individual elements from damage during transport
2Productivity
If insulating elements are stacked for transport, then packing efficiency increases and damage reduces, but automated attachment becomes more difficult
Solution Approach 1:
The insulating element is segmented into distinct functional parts: a carrier body for structural support and caps with engagement features for stacking. This segmentation allows the element to maintain stability in stacked form while preserving access to attachment features on the carrier body for automated attachment processes
Solution Approach 2:
The cap structure serves multiple functions: it enables vertical stacking for efficient transport, provides mechanical engagement for stability, and does not interfere with the attachment mechanism on the carrier body, allowing the same component to fulfill both transport and installation requirements
3Reliability
If conventional insulating elements are used, then sealing function is provided, but transport costs increase due to inefficient packing
Solution Approach 1:
The insulating elements are designed to nest vertically through cap and recess engagement, creating a compact stacked configuration that maximizes the number of elements per transport unit volume, thereby reducing the total number of transport trips required and lowering energy consumption and costs while maintaining the sealing function of each element
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 stackable design reduces transport costs, minimizes damage during handling, and simplifies automated attachment by providing a secure and space-efficient packing solution, enhancing the efficiency of insulating element deployment.
Implementation Method 1
an expandable material that is arranged on the carrier
Data Source
AI summary
An insulating element for insulating a structural element in a motor vehicle, including a carrier and an expandable material arranged on the carrier. The carrier has at least one dome and is designed in such a manner that, when stacking a plurality of identical insulating elements, respective domes of adjacent insulating elements engage in one another.