Multi-Chamber Bottle Openings for Orientation-Based Liquid Dispensing
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Solution Overview
Problem
Individuals often forego using a chaser with mini-shooter bottles due to impracticality, leading to discomfort from consuming liquor straight, which can result in coughing or gagging.
Innovation Solution
A multi-chamber bottle design with differential surface tension openings for separately dispensing heterogeneous liquids, allowing one liquid to be dispensed at a first orientation and the second at a rotated orientation to overcome surface tension.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If a single mini-bottle is used to transport multiple liquids (liquor and chaser), then portability and convenience are improved, but the complexity of the container structure increases
Solution Approach 1:
The container is divided into multiple separate chambers (first chamber for liquor, second chamber for chaser) that are physically separated by a partition wall. Each chamber has its own opening and dispensing mechanism, allowing independent control of each liquid while maintaining a single portable unit.
Solution Approach 2:
Multiple chambers are nested within a single exterior housing, with each chamber containing a specific liquid. The chambers are arranged concentrically or adjacently within the compact bottle structure, allowing multiple liquids to be transported in one container without excessive size increase.
2Device complexity
If multiple liquids are dispensed from the same opening, then the device structure is simplified, but the precision of separate dispensing control deteriorates
Solution Approach 1:
The dispensing system is segmented into separate openings (first opening for liquor, second opening for chaser) positioned at different locations on the container. Each opening is associated with its respective chamber, enabling precise control over which liquid is dispensed at any given time through selective orientation.
Solution Approach 2:
The dispensing control is achieved by adding an orientational dimension - the container can be rotated to present different openings to the user. This spatial dimension allows simple separate control without complex valves or pumps, as gravity and orientation naturally control which liquid flows from which opening.
3Volume of moving object
If the container is designed for compact size, then portability is improved, but the volume for holding multiple liquids is reduced
Solution Approach 1:
The chambers are arranged in a nested or compact adjacent configuration within the exterior housing, maximizing the use of internal space. The partition wall divides the interior volume efficiently, allowing both chambers to occupy optimal space without excessive container external dimensions.
Solution Approach 2:
The container utilizes three-dimensional space efficiently by arranging chambers vertically or radially rather than linearly. This spatial optimization allows sufficient liquid capacity for both liquor and chaser while maintaining a compact, portable form factor suitable for handheld use.
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
Enables the simultaneous transport and mixing of multiple liquids without mixing until consumption, enhancing the drinking experience by allowing tailored beverage delivery modes.
Implementation Method 1
The first liquid has a first surface tension and a first viscosity. The second liquid has a second surface tension and a second viscosity. The first area can be larger than the second area to maintain a differential between the first surface tension and the second surface tension.
Implementation Method 2
the second liquid is dispensed from the second chamber opening rotated to a second orientation due to overcoming the second surface tension
Data Source
AI summary
A first chamber and a second chamber within a container are configured to hold a first liquid and a second liquid. An opening for the chamber has first and second orifices to help maintain a differential between a first surface tension and a second surface tension of the first and second liquids. The first liquid is dispensed from the first chamber opening at a first orientation while the second liquid is prevented from dispersion from the second chamber opening due to the surface tension differential. Then, the second liquid is dispensed from the second chamber opening at a second orientation due to overcoming the second surface tension.