IP Library Granted Patent US 10,280,727
Granted Patent B2
US 10,280,727 · App. 15/128,861 · Granted May 7, 2019

Systems and apparatuses for separating wellbore fluids and solids during production

Inventors: Jeffrey Charles Saponja (Calgary, CA); Robbie Singh Hari (Calgary, CA); Dean Tymko (Calgary, CA)
Assignee: Heal Systems LP
E21B43/38E21B43/121E21B43/122
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Quick Facts
Patent No.
US 10,280,727
App. No.
15/128,861
Granted
May 7, 2019
Kind
B2
Abstract

There is provided apparatuses, and related systems, for effecting production of oil from a reservoir. A flow diverter is provided and configured to direct flow of reservoir fluids such that gases and solids are separated. A system is also provided, including the flow diverter, and is disposed within a wellbore. A pump is also provided, and disposed in fluid communication with, and downstream from, the flow diverter, for receiving reservoir fluids from which gaseous and solid material have been separated by the separator.

Claims (54)

1. A flow diverter for conducting at least reservoir fluid within a wellbore fluid conductor disposed within a wellbore, the wellbore fluid conductor including a co-operating fluid conductor, wherein the flow diverter comprises:

a first side surface;

a first inlet port for receiving at least reservoir fluids;

a plurality of first outlet ports disposed in the first side surface;

a plurality of first fluid passage branches, each one of the first fluid passage branches, independently, extending from a respective at least one of the first outlet ports and disposed in fluid communication with the first inlet port such that the plurality of fluid outlet ports are fluidly coupled to the first inlet port by the first fluid passage branches;

a plurality of second inlet ports, positioned relative to the first outlet ports such that, when the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the first inlet port, each one of the second inlet ports, independently, is disposed downhole relative to the first outlet ports;

a second outlet port disposed in the first side surface, wherein each one of the first outlet ports is disposed peripherally from the second outlet port;

a plurality of second fluid passage branches, each one of the second fluid passage branches, independently, extending from a respective second inlet port and disposed in fluid communication with the second outlet port such that the plurality of second inlet ports is fluidly coupled to the second outlet port by the plurality of second fluid passage branches; and

a co-operating surface configured for co-operating with the co-operating fluid conductor, while the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the first inlet port, to define an intermediate fluid passage therebetween for effecting fluid communication between the first outlet ports and the second inlet ports.

2. The flow diverter as claimed in claim 1 ;

wherein for at least one of the first fluid passage branches, the first fluid passage branch includes one or more first fluid passage branch portions, wherein each one of the one or more first fluid passage branch portions, independently, has an axis that is disposed at an angle of less than 30 degrees relative to the axis of the first inlet port.

3. The flow diverter as claimed in claim 2 ;

wherein each one of the one or more first fluid passage branch portions, independently, has an axis that is disposed at an angle of less than 30 degrees relative to the axis of the first inlet port.

4. The flow diverter as claimed in claim 2 ;

wherein the one or more first fluid passage branch portions define at least a first fluid passage branch fraction, and wherein the axial length of the first fluid passage branch fraction defines at least 25% of the total axial length of the first fluid passage branch.

5. The flow diverter as claimed in claim 4 ;

wherein, for at least one of the first fluid passage branches, the first fluid passage branch includes one or more first fluid passage branch portions, and with respect to each one of the one or more first fluid passage branch portions, independently, the first fluid passage branch portion is oriented such that, while the flow diverter is disposed within a wellbore section and oriented for receiving at least reservoir fluids via the first inlet port, the first fluid passage branch portion is disposed at an angle of less than 30 degrees relative to the axis of the wellbore section within which the flow diverter is disposed.

6. The flow diverter as claimed in claim 5 ;

wherein each one of the one or more first fluid passage branch portions, independently, has an axis that is disposed at an angle of less than 30 degrees relative to the axis of the wellbore section within which the flow diverter is disposed.

7. The flow diverter as claimed in claim 6 ;

wherein the one or more first fluid passage branch portions define at least a first fluid passage branch fraction, and wherein the axial length of the first fluid passage branch fraction defines at least 25% of the total axial length of the first fluid passage branch.

8. The flow diverter as claimed in claim 1 ;

wherein for at least one of the second fluid passage branches, the second fluid passage branch includes one or more second fluid passage branch portions, wherein each one of the one or more second fluid passage branch portions, independently, has an axis that is disposed at an acute angle relative to the axis of the second outlet port.

9. The flow diverter as claimed in claim 8 ;

wherein each one of the one or more second fluid passage branch portions, independently, has an axis that is disposed at an angle of less than 30 degrees relative to the axis of the second outlet port.

10. The flow diverter as claimed in claim 9 ;

wherein the one or more second fluid passage branch portions define at least a second fluid passage branch fraction, and wherein the axial length of the second fluid passage branch fraction defines at least 25% of the total axial length of the second fluid passage branch.

11. The flow diverter as claimed in claim 1 ;

wherein, for at least one of the second fluid passage branches, the second fluid passage branch includes one or more second fluid passage branch portions, and with respect each one of the one or more second fluid passage branch portions, independently, the second fluid passage branch portion is oriented such that, while the flow diverter is disposed within a wellbore section and oriented for receiving at least reservoir fluids via the first inlet port, the second fluid passage branch portion is disposed at an acute angle relative to the axis of the wellbore section within which the flow diverter is disposed.

12. The flow diverter as claimed in claim 11 ;

wherein each one of the one or more second fluid passage branch portions, independently, has an axis that is disposed at an angle of less than 30 degrees relative to the axis of the wellbore section within which the flow diverter is disposed.

13. The flow diverter as claimed in claim 12 ;

wherein the one or more second fluid passage branch portions define at least a second fluid passage branch fraction, and wherein the axial length of the second fluid passage branch fraction defines at least 25% of the total axial length of the second fluid passage branch.

14. The flow diverter as claimed in claim 1 ;

wherein the flow diverter includes a second side surface;

and wherein the second inlet ports and the first inlet port are disposed in the second side surface;

and wherein each one of the second inlet ports is disposed peripherally from the first inlet port.

15. The flow diverter as claimed in claim 1 ;

wherein the first inlet port is positioned relative to the first outlet ports such that, while the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the inlet port, each one of the first outlet ports, independently, is disposed uphole relative to the first inlet port;

and

wherein the plurality of second inlet ports are positioned relative to the second outlet port such that, while the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the first inlet port, each one of the second inlet ports, independently, is disposed downhole relative to the second outlet port.

16. A flow diverter for conducting at least reservoir fluid within a wellbore fluid conductor disposed within a wellbore, the wellbore fluid conductor including a separator co-operating fluid conductor, wherein the flow diverter comprises:

a first inlet port for receiving at least reservoir fluids;

a first outlet port;

a reservoir fluid-conducting passage extending between the first inlet port and the first outlet port;

a second inlet port disposed downhole relative to the first outlet port;

a second outlet port fluidly coupled to the suction of the downhole pump;

a gas-depleted fluid conducting passage extending between the second inlet port and the second outlet port; and

a co-operating surface configured co-operating with the separator co-operating fluid conductor to define an intermediate fluid passage therebetween for effecting fluid communication between the first outlet port and the second inlet port;

wherein the first outlet port is radially tangential to the axial plane of the wellbore fluid conductor so as to effect a cyclonic flow condition in the reservoir fluid being discharged through one or more of the outlet ports, and wherein the disposed radially tangential angle of the first outlet port is less than 15 degrees as measured axially along the diverter.

17. The flow diverter as claimed in claim 16 ;

wherein the first inlet port is positioned relative to the first outlet port such that, while the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the inlet port, the first outlet port is disposed uphole relative to the first inlet port;

and

wherein the second inlet port is positioned relative to the second outlet port such that, while the flow diverter is disposed within the wellbore and oriented for receiving at least reservoir fluids via the first inlet port, the second inlet port, independently, is disposed downhole relative to the second outlet port.

Assignments (10)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Apr 2, 2018
From: PRODUCTION PLUS ENERGY SERVICES INC.
To: HEAL SYSTEMS LP
Reel/Frame 045809/0848 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: SAPONJA, JEFFREY CHARLES
To: 1784237 ALBERTA LTD.
Reel/Frame 041099/0789 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: HARI, ROBBIE SINGH
To: 1784237 ALBERTA LTD.
Reel/Frame 041099/0932 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: TYMKO, DEAN
To: 1784237 ALBERTA LTD.
Reel/Frame 041100/0011 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: PRODUCTION PLUS ENERGY SERVICES INC.
To: TRIAXON OIL CORP.
Reel/Frame 041100/0330 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: SAPONJA, JEFFREY CHARLES
To: PRODUCTION PLUS ENERGY SERVICES INC.
Reel/Frame 041101/0161 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: HARI, ROBBIE SINGH
To: PRODUCTION PLUS ENERGY SERVICES INC.
Reel/Frame 041101/0452 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2017
From: TYMKO, DEAN
To: PRODUCTION PLUS ENERGY SERVICES INC.
Reel/Frame 041101/0711 →
CHANGE OF NAME Recorded Jan 27, 2017
From: 1784237 ALBERTA LTD.
To: PRODUCTION PLUS ENERGY SERVICES INC.
Reel/Frame 041536/0630 →
CHANGE OF NAME Recorded Jan 27, 2017
From: TRIAXON OIL CORP.
To: PRODUCTION PLUS ENERGY SERVICES INC.
Reel/Frame 041536/0787 →
Priority Claims (1)
CA 2847341 · Mar 24, 2014 · national
Continuity (5)
Continuation In Part 14223722 · Mar 24, 2014
Provisional Application 62120196 · Feb 24, 2015
Provisional Application 62132249 · Mar 12, 2015
Provisional Application 62132880 · Mar 13, 2015
Related Publication 20170107807A1 · Apr 20, 2017
Cited By (2)
US 12,378,851 US 12,584,398