Dual-chamber separation container structure with hydrogen permeation introduction

Abstract

This invention relates to a dual-chamber separation container structure with hydrogen permeation introduction, comprising an upper chamber, an isolator, and a lower electrolysis chamber. The upper chamber stores drinking liquid, while the lower electrolysis chamber stores pure water. The water stored in the lower electrolysis chamber reacts to generate hydrogen gas, which is then molecularly refined by the isolator and introduced into the upper chamber to react with the stored drinking liquid. The isolator prevents the drinking liquid stored in the upper chamber from backflowing and contaminating the water in the lower electrolysis chamber, and avoids cross-contamination during the reaction process, thus preventing the generation of harmful substances. Furthermore, it allows for the decomposition and cleaning of the upper chamber, isolator, and lower electrolysis chamber, achieving excellent stability and ease of use.

Claims

1. A dual-chamber separation container structure with hydrogen permeation introduction, comprising: An upper chamber has an upper opening, an upper accommodating space, and a closed bottom. The closed bottom has an air inlet, and its outer edge has an upper fixing part. The upper accommodating space stores drinking liquid. An isolator has a shell and a gas permeation assembly. The top side of the shell has a first upper connecting part and a second upper connecting part, and the bottom side of the shell has a lower connecting part. The gas permeation assembly has a receiving groove fixing seat and a one-way gas permeation membrane, which is housed in the receiving groove fixing seat. The first upper connecting part of the shell is fixedly connected to the upper fixing part of the closed bottom of the upper chamber, and the second upper connecting part of the shell is fixedly connected to the receiving groove fixing seat of the gas permeation assembly. The device is configured such that the air inlet at the sealed bottom is aligned with the one-way gas permeation membrane of the gas permeation assembly; and an electrolysis lower chamber, which has a lower opening, a lower accommodating space, and an electrolyzer base. The lower opening has a lower fixing part on its outer edge, and the electrolyzer base is fixed to the bottom side of the lower accommodating space. The lower accommodating space contains pure water, and the electrolyzer base generates hydrogen gas through electrolysis of the water in the lower accommodating space. The lower fixing part of the lower opening is connected and fixed to the lower connecting part of the outer shell.

2. The dual-chamber separated container structure with hydrogen permeation introduction as described in claim 1, wherein, The bottom of the lower joint of the outer shell of the isolator is fitted with a filter box containing minerals, energy stones, ceramic microspheres or far-infrared particles. The minerals are maifan stone, tourmaline, jade, ceramic balls, quantum stone, negative ion minerals or combinations thereof, so that the hydrogen introduction process interacts with the minerals.

3. The dual-chamber separation container structure with hydrogen permeation introduction as described in claim 1 or 2, wherein, The gas permeation module of the isolator is equipped with a unidirectional gas permeation membrane system, which can be a high-flow-rate permeation membrane, a high-fineness permeation membrane, a strong isolation membrane, a mineral flavoring membrane, or a cleaning membrane.

4. The dual-chamber separation container structure with hydrogen permeation introduction as described in claim 3, wherein, The upper fixing part at the closed bottom of the upper chamber and the lower fixing part at the lower opening of the electrolysis lower chamber are fixed to the upper or lower connecting part of the outer shell of the isolator in a structure of internal and external thread engagement.

5. The dual-chamber separation container structure with hydrogen permeation introduction as described in claim 3, wherein, The gas permeation assembly of the isolator has a trough fixing seat, and the second upper joint of the outer shell is fixed in a structure with internal and external threads.

6. The dual-chamber separated container structure with hydrogen permeation introduction as described in claim 3, wherein, The upper fixing part at the closed bottom of the upper chamber and the lower fixing part at the lower opening of the electrolysis lower chamber are fixed to the upper or lower connecting part of the outer shell of the isolator in a structure of protrusion and slot engagement.

7. The dual-chamber separation container structure with hydrogen permeation introduction as described in claim 3, wherein, The gas permeation assembly of the isolator has a trough fixing seat, and the second upper joint of the outer shell is fixed in a structure of protrusion and slot engagement.

8. The dual-chamber separated container structure with hydrogen permeation introduction as described in claim 3, wherein, A liquid barrier membrane is installed above the gas permeation component of the isolation body.

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