Zinc Ion Water Treatment Flow Channels for Stronger Scale Binding
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Solution Overview
Problem
Conventional ion water treatment devices struggle to effectively increase the generation of zinc ions and enhance the binding force with scale particles due to limited potential differences between metals, leading to insufficient corrosion prevention and scale removal.
Innovation Solution
A zinc ion water treatment device is designed with a combination of fluorine resin bodies and zinc block bodies, featuring flow channels with eddy current-inducing grooves and a venturi tube shape to enhance eddy current generation, increasing friction and static electricity, thereby improving zinc ionization and scale removal.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Quantity of substance
If a conventional zinc block and brass housing configuration is used, then the device structure is simple, but the potential difference between metals is limited and zinc ion generation is insufficient
Solution Approach 1:
The device divides the internal space into multiple compartments with separate flow channels for fluorine resin bodies and zinc block bodies. This segmentation allows independent optimization of each component's function while maintaining overall system complexity at an acceptable level, thereby increasing zinc ion generation without excessive structural complexity
Solution Approach 2:
The device combines fluorine resin bodies with zinc block bodies in a composite structure within the housing. This composite material approach creates multiple potential differences between the fluorine resin and zinc, significantly enhancing zinc ion generation capability while the integrated design prevents excessive complexity increase
2Reliability
If static electricity generation is increased to enhance binding force with scale particles, then scale removal effectiveness improves, but energy consumption increases
Solution Approach 1:
The device utilizes the kinetic energy of the flowing fluid itself to generate eddy currents and static electricity through the interaction with fluorine resin bodies and eddy current-inducing grooves. This self-service mechanism converts the existing fluid flow energy into electrostatic energy for scale removal without requiring additional external power sources, thereby maintaining high reliability while avoiding increased energy consumption
Solution Approach 2:
The eddy current-inducing grooves create turbulent flow patterns and eddy currents in the fluid, which generate static electricity through fluid-solid interaction with the fluorine resin bodies. This mechanical turbulence approach effectively enhances binding force with scale particles while utilizing the fluid's own kinetic energy, avoiding additional energy input requirements
3Force
If eddy current-inducing grooves are added to flow channels, then eddy current generation and friction increase, but manufacturing complexity increases
Solution Approach 1:
The eddy current-inducing grooves are strategically positioned only at specific locations within the flow channels where they most effectively generate eddy currents and increase friction. This localized approach enhances the required forces at critical points while keeping the overall manufacturing process relatively simple, as the grooves are only needed in specific areas rather than throughout the entire flow channel
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 efficiently generates a large amount of zinc ions, enhancing corrosion prevention and scale removal by maximizing electrostatic effects and maintaining static electricity generation at a constant level, ensuring smooth fluid flow and effective combination with scale particles.
Implementation Method 1
a fluorine resin block that generates a potential electrostatic charge using the flow of a fluid
Implementation Method 2
the outlet or the inlet or the outlet and the inlet are provided with one or more eddy current-inducing grooves on a surface, so that when the fluid passes through the flow channel, eddy current generation is increased
Implementation Method 3
a zinc block forming a sacrificial anode inside a brass body... utilizing the sacrificial anode method of the zinc block
Data Source
AI summary
A zinc ion water treatment device in which a plurality of fluorine resin bodies is installed at regular intervals within a housing and a zinc block body is disposed between the fluorine resin bodies, in which the fluorine resin body and the zinc block body are provided with a plurality of flow channels through which the fluid flows, the flow channel provided in the fluorine resin body or the flow channel provided in the zinc block body or the flow channels provided in the fluorine resin body and the zinc block body include an inlet through which a fluid is introduced, an outlet through which the fluid is discharged, and a flow hole connecting the inlet and the outlet, and the inlet is formed as an expansion pipe portion whose diameter (inner diameter) gradually expands in a direction of an outside (A) from the flow hole, the outlet is formed as a reduction pipe portion whose diameter (inner diameter) gradually decreases in a direction of the flow hole from the outside (A), and the outlet or the inlet or the outlet and the inlet are provided with one or more eddy current-inducing grooves on a surface, so that when the fluid passes through the flow channel, eddy current generation is increased by the inlet and/or the outlet provided with the eddy current-inducing grooves.