IP Library › Granted Patent US 12,571,383
Granted Patent B2
US 12,571,383 · App. 18/087,763 · Granted Mar 10, 2026

Compresser for pumping fluid having check valves aligned with fluid ports

Inventor: Dan McCarthy (Moosomin, CA)
Assignee: I-JACK TECHNOLOGIES INCORPORATED
F04B39/123F04B5/02F04B9/109
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Quick Facts
Patent No.
US 12,571,383
App. No.
18/087,763
Granted
Mar 10, 2026
Kind
B2
Abstract

A compressor comprises a first cylinder for compressing a fluid and a second cylinder for driving a piston in the first cylinder. The first cylinder comprises a chamber configured to receive the fluid. The piston is reciprocally movable in the chamber for compressing the fluid. The chamber comprises four ports at the first end including two inlet ports and two outlet ports with a check valve is connected to each port. Each of the four ports is slanted such that the plurality of check valves and inlet and outlet conduits are spaced apart from the second cylinder. The compressor further comprises an inlet conduit to supply the fluid from a fluid source to the chamber through the inlet ports and an outlet conduit for receiving fluid from the chamber through the outlet ports.

Claims (36)

1 . A compressor for compressing a multiphase fluid comprising a mixture of gas and liquid, wherein the multiphase fluid is fluid produced from an oil and gas well, the compressor comprising:

a first cylinder for compressing a fluid, comprising:

a chamber configured and operable to receive the multi-phase fluid;

a piston reciprocally movable in the chamber operable for compressing the multi-phase fluid towards a first end of the chamber;

a centrally located opening at the first end of the chamber;

four ports at the first end of the chamber, comprising two inlet ports and two outlet ports, wherein each of the four ports comprises a first end located proximal to the chamber, and a second end located distal to the chamber;

a plurality of check valves each associated with one of the four ports for controlling fluid flow of the multi-phase fluid through the ports, including two inlet check valves connected to the two inlet ports and two outlet check valves connected to the two outlet ports, wherein an axial direction of each of the check valves is aligned with an axial direction of a central axis of the first cylinder;

a centrally located second cylinder at the first end of the chamber, the second cylinder connected and configured and operable to drive movement of the piston in the first cylinder through the centrally located opening;

an inlet conduit connected to each one of the inlet check valves operable to supply the multi-phase fluid from a fluid source to the chamber through the inlet ports;

an outlet conduit connected to each one of the outlet check valves operable for receiving the multi-phase fluid from the chamber through the outlet ports;

wherein each of the four ports is slanted such that plurality of check valves and inlet and outlet conduits are spaced apart from the second cylinder; and

wherein each one of the inlet ports are flared towards the second ends of each one of the inlet ports.

2 . The compressor of claim 1 , wherein each of the inlet and outlet conduits comprises a first end comprising a first flange; and a plurality of second ends each comprising a second flange, each of the second flanges of the inlet conduit operable for connecting the respective second end to the inlet check valves and each of the second flanges of the outlet conduit for connecting the respective second end to the outlet check valves.

3 . The compressor of claim 1 , wherein the first ends of each of the four ports are also located proximal to an edge of an internal side wall of the chamber.

4 . The compressor of claim 3 , wherein the first ends of each of the four ports are oval.

5 . The compressor of claim 3 , wherein the second ends of each of the four ports are circular.

6 . The compressor of claim 1 , wherein the second ends of each one of the inlet ports comprises a chamfered edge.

7 . The compressor of claim 1 , wherein the first ends of the chamber comprises a head plate, and each one of the check valves is secured to the head plate.

8 . The compressor of claim 1 , wherein the multiphase fluid comprises a solid material.

9 . A compressor operable for compressing a multiphase fluid comprising a mixture of gas and liquid, wherein the multiphase fluid is fluid produced from an oil and gas well, the compressor comprising:

a compression chamber comprising:

a tubular wall extending between first and second ends along a central axis, and an end plate attached to each one of the first and second ends, the end plate comprising an inner surface, an external surface, and a central opening and a plurality of peripheral fluid ports extending from the inner surface to the external surface, wherein each one of the peripheral fluid ports comprises an inner opening at the inner surface and, an outer opening at the external surface, an inner wall, and is inclined with respect to the central axis such that the outer opening is farther away from the central axis than the inner opening, wherein at least two of the plurality of peripheral fluid ports are flared towards the outer openings of the respective ports;

wherein for the at least two of the plurality of peripheral ports that are flared, a flare angle of the inner wall of the respective port, proximal to the tubular wall of the chamber, is greater than a flare angle of the inner wall of the respective port distal to the tubular wall of the chamber;

a plurality of valves each connected to one of the peripheral fluid ports, wherein an axial direction of each of the valves is parallel to the central axis;

a piston movably housed in the compression chamber;

a piston rod for driving the piston operable to move within the compression chamber, the piston rod connected to the piston through the central opening of the end plate and extending along the central axis.

10 . The compressor of claim 9 , wherein the end plate has a thickness of about 4 inches, and the outer opening is farther away from the central axis than the inner opening by between about 0.5 and about 2 inches.

11 . The compressor of claim 9 , wherein the plurality of the peripheral fluid ports comprises four ports.

12 . The compressor of claim 9 , wherein the inner opening is located 0 to about ⅜ inches from the tubular wall.

13 . The compressor of claim 9 , wherein a circumferential extent of the inner opening is longer than a radial extent of the inner opening.

14 . The compressor of claim 9 , wherein the inner opening is smaller than the outer opening.

15 . The compressor of claim 9 , wherein the outer openings of at least two of the plurality of peripheral fluid ports comprises a chamfered edge.

16 . The compressor of claim 9 , wherein the valves comprise check valves.

17 . The compressor of claim 9 , comprising a plurality of conduits connecting the valves to an input line and an output line respectively.

18 . The compressor of claim 17 , wherein each one of the conduits comprises a flange connected to a corresponding one of the valves, wherein the flange is spaced away from the piston rod due to inclination of the peripheral fluid port connected to the corresponding valve.

19 . The compressor of claim 18 , wherein the valves comprise check valves each compressed between a corresponding one of the head plates and a corresponding one of the flanges.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Dec 22, 2022
From: MCCARTHY, DAN
To: I-JACK TECHNOLOGIES INCORPORATED
Reel/Frame 062191/0884 →
Continuity (3)
Continuation In Part 17982291 · Nov 7, 2022
Continuation 17483452 · Sep 23, 2021
Related Publication 20230127613A1 · Apr 27, 2023
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