Ventilation leak component
Leakage components are described herein. The leakage component includes a first tubing housing and a plurality of leakage ports. The first tubular housing defines a first flow path between a first end portion and a second end portion. The plurality of leakage ports are formed in the first housing and in fluid communication with the first flow path. The fluid flow through the plurality of leakage ports is configured to entrain ambient air into the fluid flow exiting the plurality of leakage ports to decelerate the fluid flow.
1. A leakage component, comprising:
a tubular first housing defining a first flow path between a first end portion and a second end portion; and
a plurality of leakage ports formed in the first housing and in fluid communication with the first flow path, wherein fluid flow through the plurality of leakage ports is configured to entrain ambient air into the fluid flow exiting the plurality of leakage ports to decelerate the fluid flow, a profile of each of the plurality of leakage ports comprises a discorectangular profile, the discorectangular profile comprising an elongated rectangular shape with semi-circular ends each having a diameter, and a leakage port of the plurality of leakage ports is separated from a neighboring leakage port of the plurality of leakage ports by a factor of the diameter of the semi-circular ends of the discorectangular profile.
2. The leakage component of claim 1 , further comprising a fluid diversion member extending from the first housing and disposed adjacent to one or more leakage ports of the plurality of leakage ports, wherein the fluid diversion member is configured to divert fluid flow away from the one or more leakage ports in a first flow direction and to direct fluid flow toward the one or more leakage ports in a second flow direction.
3. The leakage component of claim 2 , wherein the fluid diversion member extends radially into the first flow path and extends axially to enshroud the one or more leakage ports.
4. The leakage component of claim 3 , wherein an outer surface of the fluid diversion member defines an inspiration flow path between the first end portion and the second end portion, and an inner surface of the fluid diversion member defines a partial expiration flow path between the second end portion and the one or more leakage ports.
5. The leakage component of claim 3 , wherein the fluid diversion member enshrouds the plurality of leakage ports.
6. The leakage component of claim 3 , wherein the fluid diversion member extends an axial length to at least partially axially overlap the one or more leakage ports.
7. The leakage component of claim 2 , wherein the fluid diversion member extends around a portion of a circumference of the first housing.
8. The leakage component of claim 2 , wherein the fluid diversion member extends axially along an outer surface of the first housing.
9. The leakage component of claim 1 , wherein the plurality of leakage ports are disposed along a circumference of the first housing.
10. The leakage component of claim 1 , wherein a profile of each of the leakage ports of the plurality of leakage ports each comprise parallel port walls.
11. The leakage component of claim 1 , wherein a first leakage port of the plurality of leakage ports is positioned adjacent to a second leakage port of the plurality of leakage ports, and wherein the first leakage port and the second leakage port each comprises a profile configured to entrain an exit flow from the adjacent leakage port.
12. The leakage component of claim 1 , further comprising:
a tubular second housing defining a second flow path, wherein the second housing is coupled to the first housing to permit fluid communication between the first flow path and the second flow path.
13. The leakage component of claim 12 , wherein any of the first housing or the second housing comprises a ball joint surface defined along an outer surface thereof, and the other of the first housing or the second housing comprising a socket surface defined within an inner surface thereof, wherein the socket surface is configured to movably couple with the ball joint surface.
14. The leakage component of claim 1 , wherein the leakage port of the plurality of leakage ports is separated from the neighboring leakage port 1.9 mm or 2.9 times the diameter of the semi-circular ends of the discorectangular profile.
15. The leakage component of claim 1 , wherein the leakage port of the plurality of leakage ports is separated from the neighboring leakage port approximately 0.5 mm, 1.0 mm, 1.5 mm, 2.0 mm, 2.5 mm, 3.0 mm, or 3.5 mm.
16. The leakage component of claim 1 , wherein the semi-circular ends of the discorectangular profile each have a diameter equal to a width of the elongated rectangular shape.
17. A leakage component, comprising:
a tubular first housing defining a first flow path between a first end portion and a second end portion;
a ball joint surface adjacent to the second end portion and defined along an outer surface of the first housing;
a plurality of leakage ports formed in the first housing and in fluid communication with the first flow path, wherein fluid flow through the plurality of leakage ports is configured to entrain ambient air into the fluid flow exiting the plurality of leakage ports to decelerate the fluid flow, a profile of each of the plurality of leakage ports comprises a discorectangular profile the discorectangular profile comprising an elongated rectangular shape with semi-circular ends each having a diameter, and a leakage port of the plurality of leakage ports is separated from a neighboring leakage port of the plurality of leakage ports by a factor of the diameter of the semi-circular ends of the discorectangular profile;
a tubular second housing defining a second flow path, wherein the second housing is coupled to the first housing to permit fluid communication between the first flow path and the second flow path; and
a socket surface defined within an inner surface of the second housing, wherein the socket surface is configured to movably couple with the ball joint surface.
18. The leakage component of claim 17 , further comprising a fluid diversion member extending from the first housing and disposed adjacent to one or more leakage ports of the plurality of leakage ports, wherein the fluid diversion member is configured to divert fluid flow away from the one or more leakage ports in a first flow direction and to direct fluid flow toward the one or more leakage ports in a second flow direction.
19. A method to direct fluid flow, the method comprising:
providing a tubular housing configured to accommodate a bulk expiration flow;
diverting a portion of the bulk expiration flow to a plurality of leakage ports formed in the tubular housing, wherein a profile of each of the plurality of leakage ports comprises a discorectangular profile, the discorectangular profile comprising an elongated rectangular shape with semi-circular ends each having a diameter, and a leakage port of the plurality of leakage ports is separated from a neighboring leakage port of the plurality of leakage ports by a factor of the diameter of the semi-circular ends of the discorectangular profile; and
entraining ambient air into the portion of the bulk expiration flow leaking through the plurality of leakage ports to reduce a velocity of the portion of the bulk expiration flow leaking through the plurality of leakage ports.
20. The method of claim 19 , further comprising entraining exit flow from an adjacent leakage port, wherein a first leakage port of the plurality of leakage ports is positioned adjacent to a second leakage port of the plurality of leakage ports.