Reusable Ornamental Balloon Structure With Hidden Weighted Anchoring
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Solution Overview
Problem
Existing ornamental balloons, particularly helium-filled and air-filled ones, face issues with instability, unsightly and unsafe anchoring systems, and lack of reusability, as they either float away or require cumbersome tie-downs and adhesives, and helium leaks quickly, rendering them unusable.
Innovation Solution
A reusable air-filled balloon structure with a hidden anchoring system using a lower ornamental balloon base chamber with a centralized pocket and a hidden valve, secured by a depending connector from the upper chamber, stabilized by common household items placed in the pocket, allowing for easy inflation and deflation for repeated use.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Force
If helium gas is used to fill ornamental balloons, then the balloons achieve buoyancy and float upwardly, but the balloons become non-reusable due to helium leakage over time
Solution Approach 1:
The patent changes the filling gas parameter from helium to air, transforming the balloon's behavior from floating to ground-based display. This parameter change enables reusability since air does not leak through the balloon material as quickly as helium, allowing the balloons to maintain their shape and position for extended periods.
Solution Approach 2:
The patent introduces weights in the form of common household items (cans, bottles, or other heavy objects) placed inside the balloon structure to counteract the natural tendency of air-filled balloons to collapse or move. These weights provide stability and keep the balloon upright without requiring visible anchors or tie-downs.
2Duration of action of stationary object
If air-filled balloons are used instead of helium, then reusability is improved, but the balloons become unstable and require cumbersome tie-downs or adhesives
Solution Approach 1:
The patent uses weights in the form of common household items (cans, bottles, or other heavy objects) placed inside the balloon structure to counteract the instability of air-filled balloons. These weights provide downward force that keeps the balloon stable and upright on the ground without requiring visible anchors or tie-downs.
Solution Approach 2:
The patent extracts the anchoring function from external visible components (anchors, tie-downs, adhesives) and integrates it into the balloon structure itself through internal weighting. The weights are placed inside the balloon through the opening used for inflation, eliminating the need for separate anchoring systems.
3Stability of the object's composition
If visible anchors or tie-downs are used to secure air-filled balloons, then stability is improved, but the appearance is degraded and safety is compromised
Solution Approach 1:
The patent extracts the anchoring function from external visible components and integrates it into the balloon structure itself through internal weighting. The weights are placed inside the balloon through the opening used for inflation, eliminating the need for separate anchoring systems that would be visible and potentially hazardous.
Solution Approach 2:
The balloon structure serves its own anchoring needs through the internal weights, eliminating the requirement for external anchors or tie-downs. The weights inside the balloon provide self-contained stability, making the structure both safer and more aesthetically pleasing.
4Stability of the object's composition
If adhesives are used to secure air-filled balloons, then stability is improved, but the complexity and ineffectiveness of the system increases
Solution Approach 1:
The patent removes adhesives and other complex securing mechanisms from the system, replacing them with a simple internal weighting approach. The weights are placed inside the balloon through the existing inflation opening, requiring no additional components or complex assembly procedures.
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 structure remains stable and upright without visible anchors, is cost-effective due to using air instead of helium, and can be reused multiple times, maintaining its shape and position both indoors and outdoors.
Implementation Method 1
A lower ornamental balloon base chamber or a lower base ornamental chamber, or a lower chamber, or a lower ornamental chamber, or a lower base chamber, or a lower balloon chamber, or a lower ornamental balloon chamber, or a lower ornamental balloon base, or a chamber base balloon, or a balloon base, or a lower balloon or a base, that is adapted to rest on a flat surface or plane
Data Source
Figure 1
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AI summary
A reusable, ornamental air-filled balloon structure includes a large, elongate, unbalanced upper ornamental chamber. The chamber has a valve on its bottom for inflating for use and deflating for storage of the balloon structure. A lower base ornamental chamber, that is adapted to rest on a flat surface or plane, has a centralized pocket with an aperture for transversely receiving the bottom of the upper chamber. A hidden valve for inflating the lower chamber for use and deflating for storage is provided. The upper chamber air valve is capable of being passed through the aperture and anchored to the lower chamber to secure the two chambers together while the upper chamber stays in an upright condition ideal for display. Common household filled cans are placed in the hidden centralized pocket to weigh the balloon structure down and keep it in place. The height of the upper ornamental chamber is at least three times taller than the height of the lower base chamber.