Systems and methods for remote actuation of a downhole tool
Systems and methods for remote actuation of a downhole tool include a work string providing a flow path therein, a downhole tool coupled to the work string, at least one actuation device operatively coupled to the downhole tool and configured to act on the downhole tool such that the downhole tool performs a predetermined action, and an optical computing device communicably coupled to the at least one actuation device and configured to detect a characteristic of a substance in the flow path and trigger actuation of the at least actuation device when the characteristic is detected.
1. A well system, comprising:
a work string providing a flow path therein;
a substance introduced into the flow path from a surface location;
a downhole tool coupled to the work string;
an actuation device operatively coupled to the downhole tool to act on the downhole tool upon receiving a command signal such that the downhole tool performs a predetermined action; and
an optical computing device communicably coupled to the actuation device and including at least one integrated computational element having a plurality of layers that optically interact with the substance to generate optically interacted light, wherein the optical computing device detects a characteristic of the substance in the flow path and sends the command signal to the actuation device to trigger actuation of the actuation device upon detecting the characteristic.
2. The well system of claim 1 , wherein the optical computing device further comprises at least one detector arranged to receive the optically interacted light and generate an output signal corresponding to the characteristic of the substance.
3. The well system of claim 1 , wherein the characteristic of the substance is at least one of a chemical composition, a phase, an impurity content, a pH level, a viscosity, a density, a total dissolved solids concentration, a salt content, a porosity, an opacity, a bacteria content, a color, and a state of matter.
4. The well system of claim 1 , wherein the substance is a fluid.
5. The well system of claim 4 , wherein the fluid is selected from the group consisting of a spacer fluid, water, brines, hydrocarbons, oil, petrochemical products, acids, surfactants, biocides, bleaches, corrosion inhibitors, foamers and foaming agents, breakers, scavengers, stabilizers, clarifiers, detergents, a treatment fluid, a fracturing fluid or slurry, a formation fluid, a cement, a drilling fluid, a gravel pack slurry, a completion fluid, air, nitrogen, carbon dioxide, argon, helium, methane, ethane, butane, and other hydrocarbon gases, hydrogen sulfide, and any combination thereof.
6. The well system of claim 4 , wherein characteristic is a predetermined concentration of the fluid.
7. The well system of claim 1 , wherein the substance is a wellbore projectile and the characteristic is at least one of a color, a porosity, a density, and a chemical composition of the wellbore projectile.
8. The well system of claim 1 , wherein the downhole tool comprises a tool selected from the group consisting of a sliding sleeve assembly, a sampling device, a wellbore packer or other wellbore device, setting tools, a valve, a flow restrictor, a fluid sampler, sensors, telemetry devices, monitoring devices, drilling/reaming devices or other well intervention devices, fishing tools, wellbore cleaning devices, injection and cutting devices, conveyance devices, material or fluid delivery devices, logging tools, measuring tools, artificial lifting devices, connectors, and any combination thereof.
9. A method of remotely actuating a downhole tool, comprising:
conveying a substance into a flow path defined in a work string from a surface location, the downhole tool being coupled to the work string;
monitoring the flow path with an optical computing device configured to detect a characteristic of the substance, wherein the optical computing device includes at least one integrated computational element having a plurality of alternating layers;
transmitting a command signal to an actuation device with the optical computing device based on detection of the characteristic of the substance, the actuation device being operatively coupled to the downhole tool; and
acting on the downhole tool with the actuation device in response to the command signal such that the downhole tool performs a predetermined action.
10. The method of claim 9 , wherein monitoring the flow path with the optical computing device comprises:
optically interacting the plurality of alternating layers of the at least one integrated computational element with the substance to generate optically interacted light;
receiving the optically interacted light with at least one detector; and
generating an output signal with the at least one detector corresponding to the characteristic of the substance.
11. The method of claim 9 , wherein conveying the substance into the flow path comprises conveying a fluid into the flow path.
12. The method of claim 9 , wherein conveying the substance into the flow path comprises conveying a wellbore projectile into the flow path, the characteristic being at least one of a color, a porosity, a density, and a chemical composition of the wellbore projectile.
13. The method of claim 9 , further comprising delaying transmission of the command signal for a predetermined period of time following detection of the characteristic of the substance.
14. The method of claim 9 , further comprising detecting the characteristic of the substance with the optical computing device for a predetermined period of time before transmitting the command signal to the at least one actuation device.
15. A well system, comprising:
a work string providing a flow path therein;
a substance introduced into the flow path from a surface location;
a sliding sleeve assembly coupled to the work string and having a sleeve movably arranged therein between an open configuration, where fluid communication is allowed between an interior of the work string and an exterior of the work string, and a closed configuration, where fluid communication is prevented between the interior of the work string and the exterior of the work string;
an actuation device operatively coupled to the sliding sleeve assembly and configured to move the sleeve between the open and closed configurations upon receiving a command signal; and
an optical computing device communicably coupled to the actuation device and including at least one integrated computational element having a plurality of layers that optically interact with the substance to generate optically interacted light, wherein the optical computing device detects a characteristic of a substance in the flow path and sends the command signal to the actuation device to trigger actuation of the actuation device upon detecting the characteristic.
16. The well system of claim 15 , wherein the optical computing device comprises
at least one detector arranged to receive the optically interacted light and generate an output signal corresponding to the characteristic of the substance.
17. The well system of claim 15 , wherein the characteristic of the substance is at least one of a chemical composition, a phase, an impurity content, a pH level, a viscosity, a density, a total dissolved solids concentration, a salt content, a porosity, an opacity, a bacteria content, a color, and a state of matter.
18. The well system of claim 15 , wherein the substance is a fluid selected from the group consisting of a spacer fluid, water, brines, hydrocarbons, oil, petrochemical products, acids, surfactants, biocides, bleaches, corrosion inhibitors, foamers and foaming agents, breakers, scavengers, stabilizers, clarifiers, detergents, a treatment fluid, a fracturing fluid or slurry, a formation fluid, a cement, a drilling fluid, a gravel pack slurry, a completion fluid, air, nitrogen, carbon dioxide, argon, helium, methane, ethane, butane, and other hydrocarbon gases, hydrogen sulfide, and any combination thereof.
19. The well system of claim 18 , wherein the characteristic is a predetermined concentration of the fluid.
20. The well system of claim 18 , wherein the characteristic is a concentration of solid particulates entrained in the fluid.
21. The well system of claim 15 , wherein the substance is a wellbore projectile and the characteristic is at least one of a color, a porosity, a density, and a chemical composition of the wellbore projectile.
22. A method of remotely actuating a sliding sleeve assembly, comprising:
conveying a substance into a flow path defined in a work string from a surface location, the sliding sleeve assembly being coupled to the work string and having a sleeve movably arranged therein;
monitoring the flow path with an optical computing device configured to detect a characteristic of the substance, wherein the optical computing device includes at least one integrated computational element having a plurality of alternating layers;
transmitting a command signal to an actuation device from the optical computing device based on detection of the characteristic of the substance, the actuation device being operatively coupled to the sliding sleeve assembly; and
moving the sleeve with the actuation device in response to the command signal.
23. The method of claim 22 , wherein monitoring the flow path with the optical computing device comprises:
optically interacting the plurality of alternating layers of the at least one integrated computational element with the substance to generate optically interacted light;
receiving the optically interacted light with at least one detector; and
generating an output signal with the at least one detector corresponding to the characteristic of the substance.
24. The method of claim 22 , wherein conveying the substance into the flow path comprises conveying a fluid into the flow path.
25. The method of claim 22 , wherein conveying the substance into the flow path comprises conveying a wellbore projectile into the flow path, the characteristic being at least one of a color, a porosity, a density, and a chemical composition of the wellbore projectile.
26. The method of claim 22 , wherein moving the sleeve with the actuation device comprises one of moving the sleeve to an open configuration, where fluid communication is allowed between an interior of the work string and an exterior of the work string, and moving the sleeve to a closed configuration, where fluid communication is prevented between the interior of the work string and the exterior of the work string.