Wellbore servicing tools, systems and methods utilizing near-field communication
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
E21B-047/12
E21B-034/06
E21B-043/14
E21B-043/116
E21B-043/119
E21B-043/12
H04B-005/00
출원번호
US-0914114
(2013-06-10)
등록번호
US-9562429
(2017-02-07)
발명자
/ 주소
Walton, Zachary William
Howell, Matthew Todd
Fripp, Michael Linley
출원인 / 주소
Halliburton Energy Services, Inc.
대리인 / 주소
Wustenberg, John W.
인용정보
피인용 횟수 :
1인용 특허 :
199
초록▼
A wellbore servicing system comprising one or more wellbore tool nodes disposed within a wellbore, wherein each of the one or more wellbore tool nodes is configurable from a first configuration to a second configuration, and a controller node, wherein the controller node communicates with the wellbo
A wellbore servicing system comprising one or more wellbore tool nodes disposed within a wellbore, wherein each of the one or more wellbore tool nodes is configurable from a first configuration to a second configuration, and a controller node, wherein the controller node communicates with the wellbore tool node via a near field communication (NFC) signal.
대표청구항▼
1. A wellbore servicing system comprising: multiple wellbore tool nodes incorporated within a tubular string having an axial flowbore formed therethrough to communicate formation fluids to a surface of a wellbore, wherein each of the wellbore tool nodes is configurable from a first configuration to
1. A wellbore servicing system comprising: multiple wellbore tool nodes incorporated within a tubular string having an axial flowbore formed therethrough to communicate formation fluids to a surface of a wellbore, wherein each of the wellbore tool nodes is configurable from a first configuration to a second configuration, wherein each of the wellbore tool nodes comprises an electronic circuit for receiving, processing, and outputting near field communication (NFC) signals; anda controller node configured to move through the axial flowbore of the tubular string in response to movement of fluid through the axial flowbore, wherein the controller node comprises an electronic circuit for receiving, processing, and outputting near field communication (NFC) signals, wherein the controller node communicates independently with each wellbore tool node separately from the other wellbore tool nodes via NFC signals to obtain an identity of the wellbore tool node and output a control command to the wellbore tool node based on the identity of the wellbore tool node. 2. The wellbore servicing system of claim 1, wherein the controller node is configured to output a predetermined control command to the wellbore tool node effective to cause the wellbore tool node to output a response corresponding to the predetermined control command, wherein the response comprises an actuating signal. 3. The wellbore servicing system of claim 1, wherein the controller node is configured to output the control command to the wellbore tool node effective to cause the wellbore tool node to transition an electronic circuit of the wellbore tool node between a low-power consumption mode and an active mode, to start a timer, to stop a timer, to increment a counter, to decrement a counter, or combinations thereof. 4. The wellbore servicing system of claim 1, wherein in the first configuration the wellbore tool node does not allow a route of fluid communication from the axial flowbore to an exterior thereof; andwherein in the second configuration the wellbore tool node allows the route of fluid communication from the axial flowbore to the exterior thereof. 5. The wellbore servicing system of claim 4, wherein the wellbore tool node is configurable from the second configuration back to the first configuration. 6. The wellbore servicing system of claim 1, wherein at least one of the multiple wellbore tool nodes comprises a packer;wherein in the first configuration the at least one wellbore tool node is unset; andwherein in the second configuration the at least one wellbore tool node is set. 7. The wellbore servicing system of claim 1, further comprising a second controller node, wherein the second controller node is located uphole from the multiple wellbore tool nodes, wherein the second controller node is configured to communicate a signal to the controller node effective to activate the controller node, to cause the controller node to begin making signal transmissions, to program instructions into the controller node, to deactivate the controller node, to convert the controller node from a passive target to an active initiator, or combinations thereof. 8. The wellbore servicing system of claim 1, wherein each wellbore tool node is further configured to monitor at least one wellbore parameter, to monitor one or more parameters associated with the wellbore tool node, or combinations thereof;wherein each wellbore tool node is also configured to store data related to the at least one wellbore parameter, the one or more parameters associated with the wellbore tool node, or combinations thereof; andwherein the controller node is configured to obtain at least a portion of the data stored by the wellbore tool node from the wellbore tool node. 9. The wellbore servicing system of claim 8, wherein the wellbore parameter comprises temperature, pressure, flow rate, or flow composition. 10. The wellbore servicing system of claim 8, wherein one or more parameters associated with the wellbore tool node comprises battery power, configuration, mode of operation, operational history, or actuation status. 11. The wellbore servicing system of claim 1, wherein the controller node is configured to output the control command to the wellbore tool node effective to cause the wellbore tool node to output an actuating signal in response to receiving a predetermined quantity of NFC signals or a predetermined combination of NFC signals. 12. A wellbore servicing method comprising: positioning multiple wellbore tool nodes within a wellbore, wherein the wellbore tool nodes are incorporated within a tubular string having an axial flowbore formed therethrough to communicate formation fluids to a surface of the wellbore, wherein each of the wellbore tool nodes is configurable from a first configuration to a second configuration, wherein each of the wellbore tool nodes comprises an electronic circuit for receiving, processing, and outputting near field communication (NFC) signals;moving a controller node through the axial flowbore of the tubular string in response to movement of fluid through the axial flowbore, wherein the controller node communicates independently with each of the wellbore tool nodes separately from the other wellbore tool nodes via near field communication (NFC) signals;receiving a NFC signal indicative of an identity of the wellbore tool node at the controller node;determining a control command to output to the wellbore tool node based on the identity of the wellbore tool node via an electronic circuit in the controller node; andoutputting the control command from the controller node to the wellbore tool node effective to cause the wellbore tool node to transition from the first configuration to the second configuration. 13. The wellbore servicing method of claim 12, wherein when moving the controller node through the wellbore, the controller node communicates with a second controller node via NFC, wherein the second controller node is located uphole from the wellbore tool node. 14. The wellbore servicing method of claim 13, wherein communication between the controller node and the second controller node is effective to configure the controller node for communication with the wellbore tool node. 15. The wellbore servicing method of claim 14, further comprising: establishing communication between the controller node and the second controller node;receiving a signal indicative of an identity of the controller node at the second controller node; andoutputting a command from the second controller node to the controller node based on the identity of the controller node. 16. The wellbore servicing method of claim 14, further comprising outputting a command from the second controller node to the controller node based on a number of additional controller nodes previously moved through the axial flowbore of the tubular string. 17. The wellbore servicing method of claim 14, further comprising outputting a command from the second controller node to the controller node effective to transition the electronic circuit of the controller node from a low-power mode to an awake mode for actively transmitting signals. 18. The wellbore servicing method of claim 14, further comprising outputting a command from the second controller node to the controller node effective to program instructions for determining the control command the controller node is to output to the wellbore tool node. 19. The wellbore servicing method of claim 12, further comprising: monitoring, via the wellbore tool node, at least one wellbore parameter or one or more parameters associated with the wellbore tool node;storing, at the wellbore tool node, data related to the at least one wellbore parameter or one or more parameters associated with the wellbore tool node; andcommunicating at least a portion of the data stored by the wellbore tool node to the controller node. 20. The wellbore servicing method of claim 12, wherein in the first configuration the wellbore tool node does not allow a route of fluid communication from the axial flowbore to an exterior thereof; andwherein in the second configuration the wellbore tool node allows the route of fluid communication form the axial flowbore to the exterior thereof. 21. The wellbore servicing method of claim 12, wherein at least one of the wellbore tool nodes comprises a packer;wherein in the first configuration the at least one wellbore tool node is unset; andwherein in the second configuration the at least one wellbore tool node is set. 22. The wellbore servicing method of claim 12, further comprising: moving a second controller node through the axial flowbore of the tubular string in response to movement of fluid through the axial flowbore, wherein the second controller node communicates independently with each of the wellbore tool nodes separately from the other wellbore tool nodes via near field communication (NFC) signals;receiving a signal indicative of an identity of the wellbore tool node at the second controller node;determining a control command to output to the wellbore tool node based on the identity of the wellbore tool node via an electronic circuit in the second controller node; andoutputting the control command from the second controller node to the wellbore tool node only if the wellbore tool node is in the second configuration.
Irani, Cyrus A.; Zeller, Vincent P.; MacPhail, Chuck; Perkins, Don H., Apparatus and method for actuating a pressure delivery system of a fluid sampler.
Schultz,Roger L.; Michael,Robert K.; Dagenais,Pete C.; Fripp,Michael L.; Tucker,James C., Apparatus and method for creating pulsating fluid flow, and method of manufacture for the apparatus.
Shammai Houman M. (411 Robinhood Cir. Lafayette LA 70508), Apparatus for maintaining at least bottom hole pressure of a fluid sample upon retrieval from an earth bore.
Goldben P. Mark (Florida NY) Sandrock Gary D. (Ringwood NJ), Disproportionation resistant metal hydride alloys for use at high temperatures in catalytic converters.
Fripp, Michael Linley; Dykstra, Jason D.; Gano, John Charles; Holderman, Luke William, Downhole fluid flow control system having a fluidic module with a bridge network and method for use of same.
Shah,Vimal V.; Linyaev,Eugene R.; Kyle,Donald G.; Gardner,Wallace R.; Rodney,Paul F., Drill string incorporating an acoustic telemetry system employing one or more low frequency acoustic attenuators and an associated method of transmitting data.
Schultz Roger L. (Stillwater OK) Beck H. Kent (Copper Canyon TX) Ringgenberg Paul D. (Carrollton TX) Hinkie Ronald L. (Marlow OK), Early evaluation by fall-off testing.
Dykstra, Jason D.; Fripp, Michael L.; Hamid, Syed, Flow path control based on fluid characteristics to thereby variably resist flow in a subterranean well.
Dykstra, Jason D.; Fripp, Michael L.; Hamid, Syed, Flow path control based on fluid characteristics to thereby variably resist flow in a subterranean well.
Dykstra, Jason D.; Fripp, Michael L.; Hamid, Syed, Flow path control based on fluid characteristics to thereby variably resist flow in a subterranean well.
Miller, Todd B.; Hamid, Syed; Cassidy, Juanita M.; Kyle, Donald G.; Dagenais, Pete Clement; Fripp, Michael L.; Santra, Ashok, Forming structures in a well in-situ.
Gardner, Wallace R.; Shah, Vimal V.; Kyle, Donald, High data rate acoustic telemetry system using multipulse block signaling with a minimum distance receiver.
Schultz, Roger L.; Allin, Melissa G.; Ringgenberg, Paul D.; Zeller, Vincent P.; Trinh, Tyler T.; Wright, Adam D.; Kyle, Donald G., Hydraulic control and actuation system for downhole tools.
Hanley David J. (Bergenfield NJ) Huston E. Lee (Tuxedo NY) Golben P. Mark (Florida NY), Hydride operated reversible temperature responsive actuator and device.
Ellis Jim E. (Tulsa OK) Tomasko John A. (Claremore OK) Rooker Mitchel L. (Sand Springs OK), Low pressure burst disk sensor with weakened conductive strips.
Holcombe Michael W. (Katy TX) Rothers David E. (Houston TX) Owens Steve C. (Katy TX) Henderson William D. (League City TX) Doane James C. (Friendswood TX), Method & apparatus for actuating a downhole tool.
Hopmann Mark (Alvin TX) Jennings Steve L. (Houston TX) Dinhoble Daniel E. (Houston TX), Method and apparatus for controlling the flow of well bore fluids.
Surjaatmadja, Jim B.; Howell, Matt T.; Case, Leonard; Robinson, Lonnie R., Method and apparatus for orchestration of fracture placement from a centralized well fluid treatment center.
Lund Gary K. (Ogden UT) Stevens Mikel R. (Fayetteville AR) Edwards W. Wayne (Tremonton UT) Shaw ; III Graham C. (Garland UT), Non-azide gas generant formulation, method, and apparatus.
Schultz Roger L. (Richardson TX) Kyle Donald G. (Plano TX) Skinner Neal G. (Lewisville TX), Pressure change signals for remote control of downhole tools.
Schultz Roger L. (Richardson TX) Kyle Donald G. (Plano TX) Skinner Neal G. (Lewisville TX), Pressure change signals for remote control of downhole tools.
Jackson, Robert A.; Poirier, Gary M.; Glanville, Stephen; Kalenchuk, Ashley C.; Goodman, Paul G.; Jamieson, F. Merrill, Process for fracturing a subterranean formation.
Manke Kevin R. (Flower Mound TX) Wesson David S. (Waxahachie TX) Schultz Roger L. (Richardson TX), Pyrotechnic charge powered operating system for downhole tools.
Irani, Cyrus A.; Zeller, Vincent P.; MacPhail, Charles M.; Brown, Scott; Carlson, Timothy R., Single phase fluid sampling apparatus and method for use of same.
Irani, Cyrus A.; Zeller, Vincent P.; MacPhail, Charles M.; Brown, Scott; Carlson, Timothy R., Single phase fluid sampling apparatus and method for use of same.
Shah Vimal V. ; Birchak James R. ; Minear John W. ; Gardner Wallace R. ; Kyle Donald ; Dennis John R. ; McConnell Kenny ; Reagan George S. ; McConnell Rebecca, Single point contact acoustic transmitter.
Birchak James R. ; Mandal Batakrishna ; Masino James E. ; Minear John W. ; Ritter Thomas E., Transducer configuration having a multiple viewing position feature.
Roddy, Craig W.; Covington, Rick L.; Ravi, Krishna M.; Bonavides, Clovis; Frisch, Gary; Mandal, Batakrishna, Use of micro-electro-mechanical systems (MEMS) in well treatments.
Dykstra, Jason D.; Fripp, Michael L., Variable flow resistance system with circulation inducing structure therein to variably resist flow in a subterranean well.
Wright, Adam D.; Fripp, Michael L.; Fink, Kevin D.; Perkins, Donald; Williamson, Jimmie R.; Kalman, Mark D., Well tools incorporating valves operable by low electrical power input.
※ AI-Helper는 부적절한 답변을 할 수 있습니다.