Refill Station Segmentation for Carbonation Container CO2 Supply
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Solution Overview
Problem
Existing refill systems for carbonation containers lack a convenient and efficient method for refilling pressurized CO2, limiting the number of refills and user control over the refilling process.
Innovation Solution
A refill station with a pressurized CO2 tank and a controllable refill valve, integrated with a control interface and conduit, allowing users to refill carbonation containers multiple times by user input, ensuring sufficient CO2 supply for at least three instances.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If a refill system uses a small portable CO2 tank, then the device is portable and easy to operate, but the tank can only support limited refills (less than three times)
Solution Approach 1:
The system divides the CO2 storage into two separate components: a large stationary refill tank and a small portable container tank. The stationary tank serves as the bulk storage reservoir, while the portable tank provides mobility and direct carbonation function. This segmentation allows the portable unit to remain lightweight and easy to operate while the stationary unit provides sufficient CO2 supply capacity for multiple refills.
2Quantity of substance
If a refill system uses a large CO2 tank to support multiple refills, then the CO2 supply capacity is sufficient, but the device becomes bulky and less portable
Solution Approach 1:
The system separates the large CO2 storage function into a stationary refill tank, while the portable container tank maintains its small size for ease of operation. The stationary tank handles the bulk storage requirement, allowing the portable unit to remain compact and maneuverable.
3Productivity
If the refill process is automated without user control, then the refilling speed is faster, but the user cannot control the refilling process
Solution Approach 1:
The system employs an automated valve mechanism that self-regulates the refilling process based on pressure differential. When the portable container tank's pressure is lower than the stationary refill tank's pressure, CO2 automatically flows through the valve to equalize pressures. This eliminates the need for manual operation while maintaining user control through the automatic pressure-balancing mechanism.
4Ease of operation
If the refill system requires manual intervention for each refill, then the user has full control, but the refilling process is time-consuming and inefficient
Solution Approach 1:
The automated pressure-balancing valve performs the refilling operation autonomously by detecting pressure differences between tanks. The user simply connects the portable container tank to the stationary refill tank, and the system automatically transfers CO2 until pressure equalization occurs, significantly improving refilling efficiency while maintaining simplicity and user oversight.
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 efficient and user-controlled refilling of carbonation containers, providing multiple refills without the need for frequent CO2 replenishment, enhancing convenience and portability.
Implementation Method 1
The refill tank may be configured to hold a pressurized liquid, such as CO2... The second volume of the refill tank holds an amount of the pressurized liquid that is sufficient to support at least three separate and distinct instances of refilling the container tank
Implementation Method 2
controlling transfer, by a controllable refill valve included in the refill station, of the pressurized liquid from the refill tank to the container tank. Operation of the controllable refill valve is based at least in part on the user input received through the control interface
Data Source
AI summary
A refill station for refillable carbonation containers is disclosed. Exemplary implementations may include a refill station housing, a refill tank, a control interface, a conduit, a controllable refill valve, and/or other components. The refill tank of the refill station holds a pressurized liquid, such as CO2. The refill station housing holds a carbonation container, such as a bottle, which includes a container tank. A user can control filling or refilling the container tank from the refill tank.