Flow divider with internal vane

Patent metadata

Field	Value
Publication number	US-11971127-B2
Application number	US-202217947960-A
Country	US
Kind code	B2
Filing date	Sep 19, 2022
Priority date	Jun 30, 2017
Publication date	Apr 30, 2024
Grant date	Apr 30, 2024

Abstract

A flow splitter may include an inlet, at least two outlets, and an internal vane comprising a first end corresponding to the inlet and a second end corresponding to the at least two outlets, wherein the internal vane is configured to turn, between the first end and the second end, an internal flowing fluid from 0 degrees to a degree between about 60 degrees and 150 degrees. Methods of dividing fluid flow are also provided.

First claim

The invention claimed is:

1. A flow splitter selectively fluidly coupled downstream of a sharp turn of a fluid circuit, comprising:
an inlet;
at least two outlets; and
an internal vane comprising a first end located at to the inlet and a second end corresponding to the at least two outlets, wherein the internal vane is configured to turn, between the first end and the second end, an internal flowing fluid from 0 degrees to a degree between about 60 degrees and 150 degrees, the internal vane forming a first conduit and a second conduit using the internal vane, the first conduit and the second conduit having equal cross-sectional areas between the first end and the second end;
wherein the internal vane splits an initial flow of the internal flowing fluid at the first end into a first sub-flow through the first conduit and a second sub-flow through the second conduit, the first sub-flow being isolable from the second sub-flow through and downstream of the flow splitter by the internal vane.

2. The flow splitter of claim 1 , wherein the internal vane is configured to split the internal flowing fluid along a first axis, wherein
the at least two outlets split the internal flowing fluid,
one of the at least two outlets having a first axis component and another outlet having a second axis component, and
the first and second axis components defining a plane.

3. The flow splitter of claim 2 , wherein the first axis component and the second axis component of the at least two outlets form an acute angle.

4. The flow splitter of claim 2 , wherein the first axis component and a second axis component of the at least two outlets form a right angle.

5. The flow splitter of claim 1 , wherein the internal vane is configured to turn the internal flowing fluid between about 80 degrees and 100 degrees.

6. The flow splitter of claim 1 , wherein the internal vane is configured to turn the internal flowing fluid by about 90 degrees.

7. The flow splitter of claim 1 , wherein the internal vane comprises a plurality of internal vanes, the plurality of internal vanes including a first internal vane and a second vane, the plurality of internal vanes being configured to turn the internal flowing fluid from 0 degrees to a degree between about 60 degrees and 150 degrees.

8. The flow splitter of claim 7 , wherein the first internal vane and the second vane are parallel.

9. The flow splitter of claim 7 , wherein the first internal vane and the second vane are in series.

10. The flow splitter of claim 1 , wherein the flow splitter is configured to split the internal flowing fluid so there is a maximum variation of about 30% or less between a volumetric fluid flow between the at least two outlets.

11. A flow circuit, comprising:
a sharp turn and
a flow splitter fluidly coupled downstream of the sharp turn such that an initial flow through the flow circuit enters the sharp turn and then flows to the flow splitter, the flow splitter comprising an inlet, at least two outlets; and an internal vane, the internal vane comprising:
a first end located at the inlet; and
a second end corresponding to the at least two outlets,

wherein the internal vane is configured to turn, between the first end and the second end, an internal flowing fluid from 0 degrees to a degree between about 60 degrees and 150 degrees, the internal vane forming a first conduit and a second conduit using the internal vane; and
wherein the internal vane splits the initial flow of the internal flowing fluid at the first end into a first sub-flow through the first conduit and a second sub-flow through the second conduit, the first sub-flow being isolable from the second sub-flow through and downstream of the flow splitter by the internal vane.

12. The flow circuit of claim 11 , wherein the first conduit and the second conduit have equal cross-sectional areas between the first end and the second end.

13. The flow circuit of claim 11 , the at least two outlets includes a first outlet and a second outlet, and wherein the flow circuit further comprises a first downstream flow circuit fluidly coupled with the first outlet and a second downstream flow circuit fluidly coupled with the second outlet, the flow circuit being configured to evenly redirect the initial flow among the first downstream flow circuit and the second downstream flow circuit.

14. The flow circuit of claim 11 , wherein the internal vane is configured to split the internal flowing fluid along a first axis, wherein
the at least two outlets split the internal flowing fluid,
one of the at least two outlets having a first axis component and another outlet having a second axis component, and
the first and second axis components defining a plane.

15. The flow circuit of claim 14 , wherein the first axis component and a second axis component of the at least two outlets form a positive angle.

16. The flow circuit of claim 14 , wherein the first axis component and a second axis component of the at least two outlets form an angle between 80 degrees and 100 degrees.

17. A method of splitting fluid flow comprising:
directing a fluid flow through a sharp turn;
directing the fluid flow into an inlet of a flow splitter downstream of the sharp turn;
dividing the fluid flow into a first sub-fluid flow and a second sub-fluid flow at the inlet with an internal vane to thereby turn at least one of the first sub-fluid flow or the second sub-fluid flow from 0 degrees to a degree between about 60 degrees and 150 degrees, wherein the internal vane comprises a first end of the internal vane that is substantially parallel with the fluid flow before the sharp turn;
directing the first sub-fluid flow to a first outlet of the flow splitter; and
directing the second sub-fluid flow to a second outlet of the flow splitter, the first sub-fluid flow being isolable from the second sub-fluid flow through the flow splitter by the internal vane.

18. The method of claim 17 , wherein dividing the fluid flow into the first sub-fluid flow and the second sub-fluid flow with the internal vane includes turning the fluid flow via a first conduit and a second conduit formed by the internal vane, the first conduit and the second conduit having equal cross-sectional areas between the first and second ends of the flow splitter.

19. The method of claim 17 , wherein the dividing the fluid flow has a maximum volumetric fluid flow variation of about 30% or less.

20. The method of claim 17 , wherein directing the first sub-fluid flow to the first outlet of the flow splitter includes directing the first sub-fluid flow at an angle between 80 degrees and 100 degrees from that of the second sub-fluid flow.

Assignees

• Cummins Inc

Inventors

• Tolhurst George Martin
• Anderson Alan C
• Andras John Robert
• Wickliff Jonathan Bowen

Classifications

• F02B31/04

  by means within the induction channel, e.g. deflectors · CPC title

• B01J8/22

  gas being introduced into the liquid · CPC title

• Y10T137/85938

  Non-valved flow dividers · CPC title

• B01J8/0278

  Feeding reactive fluids (for solid material B01J8/0015) · CPC title

• B24B57/02

  for feeding of fluid, sprayed, pulverised, or liquefied grinding, polishing or lapping agents · CPC title