Gas Dissolving Device Laminar Flow Pressure Control
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Solution Overview
Problem
Existing gas dissolving devices fail to maintain a supersaturated state of dissolved gas in liquids stably and are cumbersome, making them difficult to attach to water servers or similar systems.
Innovation Solution
A gas dissolving device with a dissolving chamber and pressure reduction and transfer means, utilizing a tapered tube-shaped passage to form a laminar flow, which prevents pressure variation and maintains a supersaturated state of dissolved gas in liquids, allowing easy attachment to water servers.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional gas dissolving devices are used, then gas can be dissolved in liquid, but the supersaturated state cannot be maintained stably and the device is cumbersome
Solution Approach 1:
The invention changes the pressure parameter dynamically during the dissolving process. By controlling pressure variation through the pressure variation control unit, the system maintains a supersaturated state of gas in liquid without requiring complex additional structures. The pressure is adjusted to prevent gas separation while maintaining supersaturation.
Solution Approach 2:
The dissolving chamber serves multiple functions: it is both the container for gas-liquid contact and the storage vessel for maintaining the supersaturated state. The pressure variation control unit integrates pressure regulation and flow control functions, reducing overall device complexity while improving reliability.
2Quantity of substance
If existing dissolving methods are used, then gas dissolving can be achieved, but the device is large in scale and requires sufficient space
Solution Approach 1:
The invention integrates the dissolving chamber and storage function within a compact configuration. The pressure variation control unit is integrated into the existing chamber structure rather than requiring separate external control systems, reducing overall device volume while maintaining high gas concentration capability.
Solution Approach 2:
By optimizing pressure parameters and using efficient gas-liquid contact methods within a compact dissolving chamber, the invention achieves high gas concentration without requiring large device volume. The controlled pressure variation allows maximum dissolving efficiency in a small space.
3Stress or pressure
If conventional pressure reducing mechanisms are used, then pressure reduction is achieved, but pressure variation occurs and supersaturated state is disrupted
Solution Approach 1:
The pressure variation control unit monitors and adjusts pressure in real-time during the gas dissolving process. This feedback mechanism prevents pressure variations that would cause gas separation, thereby maintaining the supersaturated state reliably while achieving necessary pressure reduction.
Solution Approach 2:
Instead of using a static pressure reducing mechanism, the invention employs dynamic pressure control through the pressure variation control unit. This allows continuous adjustment of pressure to maintain supersaturation throughout the dissolving and storage process, preventing gas separation.
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 device effectively dissolves gas in a supersaturated state and maintains this state stably, achieving higher gas concentration and ease of integration with water servers, reducing manufacturing complexity and space requirements.
Implementation Method 1
pressure reduction and transfer means for preventing pressure variation in a tube-shaped passage that connects the dissolving chamber and the outlet due to an action of discharging hydrogen water from the outlet, and for forming a laminar flow
Implementation Method 2
dissolving chamber that stores under pressure generated hydrogen water introduced therein
Data Source
AI summary
Provided is a gas dissolving device capable of dissolving gas in a liquid in a supersaturated state and maintaining such a saturated state in a stable manner, and being easily attached to a water server or the like.The gas dissolving device generates hydrogen water by dissolving hydrogen in water, and discharges the hydrogen water from an outlet. The gas dissolving device includes a dissolving chamber that stores under pressure generated hydrogen water introduced therein, and pressure reduction and transfer means for preventing pressure variation in a tube-shaped passage that connects the dissolving tank and the outlet due to an action of discharging the hydrogen water from the outlet, and for forming a laminar flow.