Heat Exchanger Bead Flow Guide for Uniform Cooling Distribution
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Solution Overview
Problem
Existing heat exchangers face challenges in uniformly distributing cooling water flow, leading to inefficiencies in heat exchange due to high flow resistance in short channels.
Innovation Solution
The design incorporates laminated flow channel plates with beads protruding from the plates to guide cooling water flow, varying bead spacing and shape to manage flow resistance, and flow guides to ensure uniform distribution across the channel.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If cooling water flows through a short flow channel, then flow resistance decreases, but flow distribution becomes non-uniform
Solution Approach 1:
The patent applies local quality by positioning beads at specific locations within the flow channel rather than uniformly distributing them. The beads are placed at strategic points where flow distribution needs correction, creating localized flow guidance structures that address non-uniform flow patterns without increasing overall flow resistance. This allows the short flow channel to maintain low resistance while achieving uniform flow distribution through targeted local modifications.
2Manufacturing precision
If flow channel length is increased, then flow distribution improves, but heat exchange efficiency decreases
Solution Approach 1:
The patent segments the flow channel by introducing beads that divide the flow path into multiple sub-channels or flow paths. These beads create a segmented flow pattern that distributes cooling water more uniformly across the heat exchange surface without requiring an increased overall channel length. The segmentation effect allows the short channel to achieve flow distribution characteristics that would otherwise require a longer channel, thereby maintaining high heat exchange efficiency.
3Manufacturing precision
If beads are added to guide cooling water flow, then flow distribution uniformity improves, but device complexity increases
Solution Approach 1:
The patent employs simple bead-shaped flow guidance elements that can be easily manufactured and integrated into the flow channel. These beads are simple geometric shapes that can be produced through standard manufacturing processes, avoiding the need for complex flow guidance structures. The simplicity of the bead design allows for easy fabrication and assembly, reducing device complexity while achieving the desired flow distribution uniformity through their strategic placement rather than through complex geometric designs.
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
This configuration enhances cooling efficiency by uniformly distributing cooling water flow, reducing resistance and improving overall heat exchange performance.
Implementation Method 1
beads blocking the cooling water from flowing between the cooling water inlet hole and the cooling water outlet hole may protrude from the flow channel plate, and the beads may be arranged to surround each periphery of the cooling water inlet hole and the cooling water outlet hole
Implementation Method 2
a plurality of flow channel plates laminated on each other to respectively form a cooling water flow channel through which cooling water may flow and an air flow channel through which air may flow
Data Source
AI summary
A heat exchanger including a plurality of fluid channel plates laminated on each other to form a cooling water fluid channel through which cooling water flows and an air fluid channel through which air flows. The fluid channel plates have a cooling water inlet hole through which the cooling water is introduced and a cooling water outlet hole through which the cooling water is discharged. Beads block the flow of the cooling water, protrude between the cooling water inlet hole and the cooling water outlet hole, are arranged to surround the periphery of the cooling water inlet hole and the cooling water outlet hole, and are spaced apart such that flow resistance of the cooling water decreases as a flow length of the cooling water increases, so that flow distribution of the cooling water can be uniform.


