Liquid Cooling Generator with Molybdenum Discs
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Solution Overview
Problem
Existing liquid treatment systems face inefficiencies due to imperfections in metal components, particularly the non-uniform ionic reactive surface of rotating discs, which hinder effective purification and cooling of liquids.
Innovation Solution
The system employs a liquid cooling generator with disc-like elements made of corrosion-resistant alloys, featuring machined or polished surfaces to enhance ionic reactive surfaces, creating a molybdenum-activated liquid that undergoes an endothermic electrochemical oxidative reaction, resulting in improved purification and cooling.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Manufacturing precision
If the rotating discs are made from standard metal materials with conventional cutting methods, then the manufacturing cost is lower and the structure is simpler, but the ionic reactive surface area is insufficient and the surface cut quality is non-uniform
Solution Approach 1:
The disc elements are designed with differentiated zones: the peripheral edges feature high-frequency vibration cutting for superior surface quality and increased ionic reactivity, while the central portions maintain conventional structure. This local differentiation optimizes the reactive surface area without requiring complete redesign of all disc components.
Solution Approach 2:
The disc elements incorporate high-frequency vibration during the cutting process, creating dynamic cutting action that produces superior surface quality. The vibration frequency and amplitude are controlled to optimize both surface finish and ionic reactive surface area while maintaining manufacturing feasibility.
2Productivity
If the ionic reactive surface area of the discs is increased to improve purification efficiency, then the treatment performance is enhanced, but the manufacturing complexity and cost increase
Solution Approach 1:
Instead of increasing the ionic reactive surface area across the entire disc, the invention applies high-frequency vibration cutting only to the peripheral edges where the liquid contact is most significant. This partial application achieves enhanced purification efficiency while avoiding the excessive manufacturing complexity that would result from treating the entire disc surface.
Solution Approach 2:
The invention changes the cutting parameters by introducing high-frequency vibration during the cutting process. This parameter change transforms the cutting mechanism to produce superior surface quality and increased ionic reactivity without requiring additional materials or complex post-processing steps, thereby maintaining manufacturing ease.
3Area of stationary object
If conventional cutting methods are used for the disc elements, then the manufacturing process is simpler, but the surface cut is non-uniform and the ionic reactive surface area is limited to only 1/7th of the total surface area
Solution Approach 1:
High-frequency vibration is introduced to the cutting process, transforming it from a static to a dynamic process. This dynamic cutting action produces uniform surface cuts with enhanced ionic reactive surface area by creating micro-roughness that increases the effective surface area while maintaining manufacturing precision.
Solution Approach 2:
The conventional mechanical cutting process is supplemented or replaced with high-frequency vibration cutting. This substitution changes the cutting mechanism from purely mechanical force to a combination of mechanical force and vibrational energy, resulting in superior surface uniformity and increased ionic reactivity.
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 solution achieves a more purified and cooler liquid by increasing the ionic reactive surface area, leading to enhanced purification and cooling efficiency without the need for toxic additives, effectively addressing the limitations of existing systems.
Implementation Method 1
an endothermic electrochemical oxidative reaction occurs when the source liquid comes into contact with the molybdenum-containing structure which results in cooling of the liquid solution
Implementation Method 2
an endothermic electrochemical oxidative reaction occurs when the source liquid comes into contact with the molybdenum-containing structure
Implementation Method 3
the molybdenum-containing structure is machined or polished to remove scale from a casting process
Data Source
AI summary
Provided is a method for treating a liquid, the method including: receive a liquid; passing the liquid through a generator to cut and shear the liquid and releasing the resultant liquid for use. Also provided is a liquid treatment system including: a source of liquid; a generator in fluid communication with the liquid source which cuts and shears the liquid; a pump which produces liquid flow through the system; and an outlet through which the treated liquid flows.