IP Library Granted Patent US 12,366,156
Granted Patent B2
US 12,366,156 · App. 18/393,215 · Granted Jul 22, 2025

Apparatus and methods for controlling drilling

Inventors: Angus Lamberton Jamieson (Inverness, GB); Teddy Chen (Austin, TX); Stephane Menand (Houston, TX); Kyle Mcintire (Dallas, TX); Mohammed Mahjoub (Dallas, TX)
Assignee: HELMERICH & PAYNE TECHNOLOGIES, LLC
E21B44/06E21B44/04E21B45/00E21B2200/20
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Quick Facts
Patent No.
US 12,366,156
App. No.
18/393,215
Granted
Jul 22, 2025
Kind
B2
Abstract

A drilling control system may access a drilling plan for a borehole comprising one or more of planned path for the borehole, drill string information, mud properties, drill bit properties, formation properties, and drill rig properties. The system may receive a plurality of operating parameters from a rig for the borehole including one or more of an observed toolface, a spindle setting, a rate of penetration, a differential pressure, and a weight-on-bit. The system may receive one or more propagation functions for the borehole determined by a model of the drill string. The system may determine one or more spindle changes or block speed changes based at least in part on the propagation functions and the plurality of operating parameters. The system may generate one or more predicted drill properties from a simulator using the one or more spindle changes or the one or more block speed changes.

Claims (60)

1. A drilling rig control system, comprising:

one or more memories; and

one or more processors, communicatively coupled to the one or more memories, configured to perform operations comprising:

receiving, by a control system coupled to a drilling rig drilling a wellbore, first drilling information comprising differential pressure, weight on bit, and rate of penetration;

determining a value for reactive torque angle;

determining at least a first relationship between two drilling parameters, wherein the first relationship comprises at least one of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration;

responsive to the first relationship, adjusting at least one drilling parameter, wherein the at least one drilling parameter comprises at least one of a spindle change or the rate of penetration;

determine a total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

receiving, by the control system, second drilling information, wherein the second drilling information comprises updated values for the differential pressure, the weight on bit, and the rate of penetration;

responsive to the second drilling information, determining updated relationships between (a) the differential pressure and the reactive torque angle, (b) the differential pressure and the weight on bit, and (c) the weight on bit and the rate of penetration;

responsive to the second drilling information, determining an updated total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

comparing the updated relationships and the updated total cumulative twist value to one or more preceding values for corresponding relationships and total cumulative twist (TCT), respectively; and

determining whether to use the updated relationships or the TCT or both to adjust one or more inputs in a model.

2. The drilling rig control system of claim 1 , wherein the operations further comprise:

determining a second relationship, wherein the first relationship and the second relationship comprise a plurality of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration.

3. The drilling rig control system of claim 1 , wherein the operations further comprise:

determining a second relationship and a third relationship, wherein the first relationship, the second relationship, and the third relationship comprise (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration.

4. The drilling rig control system of claim 1 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors.

5. The drilling rig control system of claim 1 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors, wherein outlier data values are excluded from the average of data values received from the one or more sensors.

6. The drilling rig control system of claim 1 , wherein the operations further comprise:

responsive to the determined total cumulative twist value, adjusting either a block speed or a spindle orientation.

7. The drilling rig control system of claim 1 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors within a defined time period.

8. A method for controlling drilling operations, the method comprising:

receiving, by a control system coupled to a drilling rig drilling a wellbore, first drilling information comprising differential pressure, weight on bit, and rate of penetration;

determining a value for reactive torque angle;

determining at least a first relationship between two drilling parameters, wherein the first relationship comprises at least one of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration;

responsive to the first relationship, adjusting at least one drilling parameter, wherein the at least one drilling parameter comprises at least one of a spindle change or the rate of penetration;

determining a total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

receiving, by the control system, second drilling information, wherein the second drilling information comprises updated values for the differential pressure, the weight on bit, and the rate of penetration;

responsive to the second drilling information, determining updated relationships between (a) the differential pressure and the reactive torque angle, (b) the differential pressure and the weight on bit, and (c) the weight on bit and the rate of penetration;

responsive to the second drilling information, determining an updated total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

comparing the updated relationships and the updated total cumulative twist value to one or more preceding values for corresponding relationships and TCT, respectively; and

determining whether to use the updated relationships or the TCT or both to adjust one or more inputs in a model.

9. The method for controlling drilling operations of claim 8 , further comprising:

determining a second relationship, wherein the first relationship and the second relationship comprise a plurality of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration.

10. The method for controlling drilling operations of claim 8 , further comprising:

determining a second relationship and a third relationship, wherein the first relationship, the second relationship, and the third relationship comprise (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration.

11. The method for controlling drilling operations of claim 8 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors.

12. The method for controlling drilling operations of claim 8 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors, wherein outlier data values are excluded from the average of data values received from the one or more sensors.

13. The method for controlling drilling operations of claim 8 , further comprising:

responsive to the determined total cumulative twist value, adjusting either a block speed or a spindle orientation.

14. The method for controlling drilling operations of claim 8 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors within a defined time period.

15. A non-transitory computer-readable medium storing a set of instructions, the set of instructions to perform operations comprising:

receive, by a control system coupled to a drilling rig drilling a wellbore, first drilling information comprising differential pressure, weight on bit, and rate of penetration;

determine a value for reactive torque angle;

determine at least a first relationship between two drilling parameters, wherein the first relationship comprises at least one of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration;

responsive to the first relationship, adjust at least one drilling parameter, wherein the at least one drilling parameter comprises at least one of a spindle change or the rate of penetration;

determine a total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

receive, by the control system, second drilling information, wherein the second drilling information comprises updated values for the differential pressure, the weight on bit, and the rate of penetration;

responsive to the second drilling information, determine updated relationships between (a) the differential pressure and the reactive torque angle, (b) the differential pressure and the weight on bit, and (c) the weight on bit and the rate of penetration;

responsive to the second drilling information, determine an updated total cumulative twist value for a drill string coupled to the drilling rig and located in the wellbore;

compare the updated relationships and the updated total cumulative twist value to one or more preceding values for corresponding relationships and TCT, respectively; and

determine whether to use the updated relationships or the TCT or both to adjust one or more inputs in a model.

16. The non-transitory computer-readable medium of claim 15 , wherein the operations further comprise:

determine a second relationship, wherein the first relationship and the second relationship comprise a plurality of (a) a relationship between the differential pressure and the reactive torque angle, (b) a relationship between the differential pressure and the weight on bit, and (c) a relationship between the weight on bit and the rate of penetration.

17. The non-transitory computer-readable medium of claim 15 , wherein the operations further comprise:

adjusting either a spindle orientation or a traveling block velocity responsive to the determined total cumulative twist value.

18. The non-transitory computer-readable medium of claim 15 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an overage data values received from one or more sensors.

19. The non-transitory computer-readable medium of claim 15 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors, wherein outlier data values are excluded from the average of data values received from the one or more sensors.

20. The non-transitory computer-readable medium of claim 15 , wherein the updated values for at least one of the differential pressure, the weight on bit, and the rate of penetration comprises an average of data values received from one or more sensors within a defined time period.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Oct 10, 2024
From: JAMIESON, ANGUS LAMBERTON; CHEN, TEDDY; MENAND, STEPHANE; MCINTIRE, KYLE; MAHJOUB, MOHAMMED
To: HELMERICH & PAYNE TECHNOLOGIES, LLC
Reel/Frame 068859/0906 →
Continuity (2)
Continuation 17377380 · Jul 16, 2021
Related Publication 20240133286A1 · Apr 25, 2024
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