Integrated Diverter Endcap Filter Assembly for Low Pressure Drop
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Solution Overview
Problem
Existing filtration systems experience significant pressure drops, particularly in high-pressure applications, leading to inefficiencies and increased energy consumption, especially when fluid is not returned to a reservoir.
Innovation Solution
A filter assembly design featuring an inside-out flow with a cylindrical housing, angled peripheral outlet, and an upper endcap assembly with a diverter plate and struts that minimize pressure drop by directing fluid flow efficiently through a conical outlet and incorporating a bypass valve structure with aligned channels and a diverter plate.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If conventional filter assemblies are used, then filtration function is provided, but pressure drop is significant (11 psid and 7 psid)
Solution Approach 1:
The patent inverts the conventional flow direction by implementing an inside-out flow element where fluid enters through the center and exits through the periphery, rather than the traditional outside-in approach. This inversion, combined with the angled peripheral outlet positioned at approximately 45 degrees, optimizes flow dynamics and minimizes pressure drop while maintaining effective filtration.
Solution Approach 2:
The patent introduces a three-dimensional angled peripheral outlet structure positioned at approximately 45 degrees relative to the housing axis, creating a more efficient flow path in multiple dimensions. This spatial arrangement reduces flow resistance and pressure drop compared to conventional linear flow paths.
2Loss of energy
If filter assembly minimizes pressure drop, then energy consumption is reduced, but structural complexity increases with diverter plate and strut assembly
Solution Approach 1:
The upper endcap assembly serves multiple functions: it supports the diverter plate, provides structural closure, and integrates the strut assembly for bypass valve support. The diverter plate itself performs dual functions by directing flow and supporting the bypass valve mechanism, reducing the need for separate components.
Solution Approach 2:
The patent combines the diverter plate with the strut assembly and bypass valve support structure into an integrated upper endcap assembly. This merging of functions reduces the number of separate parts while achieving the desired flow optimization and pressure drop minimization.
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 design achieves a minimal pressure drop of 2.3 psid at 150 gpm, significantly reducing energy consumption and maintaining high flow rates compared to conventional filters, which typically exhibit 11 psid and 7 psid pressure drops.
Implementation Method 1
the diverter plate is angled in the direction of the angled peripheral outlet in a centerline plane of the peripheral outlet
Implementation Method 2
filter media extending between the upper endcap assembly and the lower endcap
Implementation Method 3
incorporating a bypass valve structure with aligned channels and a diverter plate
Data Source
AI summary
A high pressure filter assembly with minimal pressure drop includes a filter assembly with a cylindrical filter element housing having a central inlet at one end and an angled peripheral outlet on an opposite end, and an inside-out flow filter element coupled to the inlet having a lower endcap and an upper endcap assembly and filter media extending between the upper endcap assembly and the lower endcap, and wherein the upper endcap assembly includes an upper end cap and a diverter plate coupled to and spaced from an upper endcap of the upper end cap assembly with at least one vertical strut, wherein the diverter plate is angled in the direction of the angled peripheral outlet in a centerline plane of the peripheral outlet.


