IP Library Granted Patent US 12662911
Granted Patent B2
US 12662911 · App. 18/442,461 · Granted Jun 23, 2026

Reducing CO

Inventors: Bertrand Claude Theuveny (Paris, FR); William J. Bailey (Cambridge, MA); Kashif Rashid (Cambridge, MA); Glen Andrew Hay (Calgary, CA)
Assignee: Schlumberger Technology Corporation
E21B41/0071E21B37/00E21B47/00E21B2200/20
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Quick Facts
Patent No.
US 12662911
App. No.
18/442,461
Granted
Jun 23, 2026
Kind
B2
Abstract

Systems and methods of the present disclosure includes a mixer configured to mix air and hydrocarbons and a burner configured to receive the mixed air and hydrocarbons and to generate syngas. The system also includes a cooling system configured to receive the syngas and to cool the syngas to form cooled syngas. The system further includes a collector configured to collect carbon from the cooled syngas as soot. Moreover, the system includes a flare stack configured to receive the cooled syngas and to burn off at least part of the cooled syngas.

Claims (33)

1 . A method, comprising:

at a first time, before performing a cleanup operation of a wellbore, receiving a plurality of sets of parameters related to the cleanup operation;

at the first time, simulating at least a portion of the cleanup operation using the plurality of sets of parameters to determine a functional relationship between CO 2 emissions and the plurality of sets of parameters during the cleanup operation;

recording pertinent results from simulating the portion of the cleanup operation;

storing results comprising the CO 2 emissions for the cleanup operation in an a priori table;

at a second time, while performing the cleanup operation, identifying a set of real-world operating conditions associated with the cleanup operation;

at the second time, using the set of real-world operating conditions and the functional relationship between the CO 2 emissions and the plurality of sets of parameters, interpolating operating CO 2 emissions from the a priori table; and

using the operating CO 2 emissions to control the cleanup operation.

2 . The method of claim 1 , wherein the plurality of sets of parameters comprises historic real-world conditions of the wellbore.

3 . The method of claim 1 , wherein simulating the cleanup operation using the plurality of sets of parameters comprises simulating the cleanup operation using a plurality of coupled simulators.

4 . The method of claim 3 , wherein the plurality of coupled simulators comprises a commercial process facility simulator.

5 . The method of claim 3 , wherein the plurality of coupled simulators comprises a wellbore clean-up simulator.

6 . The method of claim 3 , comprising determining, using a commercial process facility simulator, additional CO 2 emissions at the second time using outputs of a wellbore cleanup simulator.

7 . The method of claim 1 , wherein determining the functional relationship includes determining a plurality of simulated CO 2 emissions for the plurality of sets of parameters.

8 . The method of claim 1 , wherein determining the functional relationship includes determining fluid behavior as a function of a choke schedule.

9 . The method of claim 1 , wherein the functional relationship between CO 2 emissions and the plurality of sets of parameters includes at least one of equivalent CO 2 emissions based on energy consumption of equipment, flare CO 2 emissions emanating from gas flaring, or burning CO 2 emissions emanating from burning of liquid hydrocarbons.

10 . A system, comprising:

a processor and memory, the memory including instructions that cause the processor to:

at a first time before performing a cleanup operation of a wellbore, receive a plurality of sets of parameters related to the cleanup operation;

at the first time, simulate at least a portion of the cleanup operation using the plurality of sets of parameters to determine a functional relationship between CO 2 emissions and the plurality of sets of parameters during the cleanup operation;

record pertinent results from simulating the portion of the cleanup operation;

store results comprising the CO 2 emissions for the cleanup operation in an a priori table;

at a second time while performing the cleanup operation, identify a set of real-world operating conditions associated with the cleanup operation;

at the second time, using the set of real-world operating conditions and the functional relationship between the CO 2 emissions and the plurality of sets of parameters, interpolate operating CO 2 emissions from the a priori table; and

use the operating CO 2 emissions to manage the cleanup operation.

11 . A non-transitory computer-readable storage medium comprising computer-executable instructions executable by a computer processor, the computer-executable instructions comprising instructions to:

at a first time before performing a cleanup operation of a wellbore, receive a plurality of sets of parameters related to the cleanup operation;

at the first time, simulate at least a portion of the cleanup operation using the plurality of sets of parameters to determine a functional relationship between CO 2 emissions and the plurality of sets of parameters during the cleanup operation, wherein the functional relationship includes fluid behavior as a function of a choke schedule;

record pertinent results from simulating the portion of the cleanup operation;

store results comprising the CO 2 emissions for the cleanup operation in an a priori table;

at a second time while performing the cleanup operation, identify a set of real-world operating conditions associated with the cleanup operation;

at the second time, using the set of real-world operating conditions and the functional relationship between the CO 2 emissions and the plurality of sets of parameters, interpolate operating CO 2 emissions from the a priori table; and

use the operating CO 2 emissions to manage the cleanup operation.