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公开(公告)号：US20250027407A1
公开(公告)日：2025-01-23
申请号：US18223264
申请日：2023-07-18
Applicant: Halliburton Energy Services, Inc.
Inventor： Christopher Michael JONES , John Laureto MAIDA
IPC: E21B47/135 , E21B47/18
Abstract: Described herein are systems, apparatuses, processes (also referred to as methods), and computer-readable media (collectively referred to as “systems and techniques”) for receiving data from or associated with apparatus (e.g., tools) deployed down a wellbore at speeds not previously possible. Information or data sent from a downhole tool for receipt by computers located at the surface of the Earth is often bandwidth limited for various reasons. Systems and techniques of the present disclosure allow for disposable fiber optic cables to be deployed into a wellbore that may be dedicated to sending data or sensed information uphole to a computer. This allows for additional amounts of data or sensed information to be sent to the computer when other communication mechanisms or pathways associated with a wellbore are bandwidth limited.
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公开(公告)号：US20240376816A1
公开(公告)日：2024-11-14
申请号：US18657961
申请日：2024-05-08
Applicant: Schlumberger Technology Corporation
Inventor： Makito Katayama , Edward Richards
IPC: E21B47/0228 , E21B7/06 , E21B44/00 , E21B47/18 , G01V11/00
Abstract: A method for making cross-axial magnetic field measurements in a downhole tool includes evaluating cross-axial magnetic field measurements to determine a magnetic interference bias and removing the magnetic interference bias to obtain compensated cross-axial magnetic field measurements.
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公开(公告)号：US12123301B2
公开(公告)日：2024-10-22
申请号：US17575173
申请日：2022-01-13
Applicant: Halliburton Energy Services, Inc.
Inventor： Hsu-Hsiang Wu , Li Pan , Ting Yan
CPC classification number: E21B49/003 , E21B7/04 , E21B44/00 , E21B47/18 , E21B49/087 , G01V3/20 , G01V3/30 , G01V3/38 , E21B2200/20
Abstract: System and methods for geosteering inversion are provided. Downhole tool responses are predicted for different points along a planned path of a wellbore during a downhole operation, based on each of a plurality of inversion models. Measurements of the downhole tool's actual responses are obtained as the wellbore is drilled over the different points during a current stage of the operation. The inversion models are clustered based on a comparison between the actual and predicted tool responses and a randomly selected centroid for each cluster. The inversion models are re-clustered using an average inversion model determined for each cluster as the centroid for that cluster. At least one of the re-m clustered inversion models is used to perform inversion for one or more subsequent stages of the downhole operation along the planned wellbore path. The planned wellbore path is adjusted for the subsequent stage(s) of the downhole operation.
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公开(公告)号：US12123300B2
公开(公告)日：2024-10-22
申请号：US18162651
申请日：2023-01-31
Applicant: WiDril AS
Inventor： Jarl André Fellinghaug , Vegard Fiksdal , Anton Kulyakhtin
CPC classification number: E21B47/18 , E21B41/0085 , E21B47/06
Abstract: Disclosed are perturbation signaling systems and methods for use in a downhole well. Such systems can include a downhole tool configured to hang from a wellbore anchoring mechanism. The tool can have or associate with an energy harvesting system, a power management system, a sensing system, and a wireless communication system. A turbine generator can encode signals into flowing fluid through electric load and related changes in hydraulic energy, transmitting information through the fluid. A receiver station positioned at another well location can decode and or relay the signals. Signals can bypass impediments such as noise zones by inducing signals in adjacent parallel well environments such as an annulus. The receiver station can accumulate energy from repeated redundant signaling over time to enhance communication and signal resolution. An additional wireless communication system can receive and/or relay data to a remote location.
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公开(公告)号：US12123298B1
公开(公告)日：2024-10-22
申请号：US18229453
申请日：2023-08-02
Applicant: Halliburton Energy Services, Inc.
Inventor： Henry Bland , Mikko K. Jaaskelainen
IPC: E21B47/107 , E21B43/119 , E21B43/26 , E21B47/135 , E21B47/18
CPC classification number: E21B47/107 , E21B43/119 , E21B43/26 , E21B47/135 , E21B47/18 , E21B2200/20
Abstract: A system for evaluating the flow of pressurized fluid flowing through perforation clusters in a wellbore casing of a hydraulic fracturing wellbore. The system can temporarily increase an intensity of acoustic emissions produced by the pressurized fluid flowing through the perforation clusters and can employ an optical fiber-based acoustic sensing system disposed on or in a monitoring well residing in the formation but remotely from the hydraulic fracturing well to measure the acoustic emissions while the intensity of the acoustic emissions is temporarily increased. The measured acoustic emissions can be converted into a total flow rate of the pressurized fluid flowing through the perforation clusters, which can in turn be used to calculate a cluster level uniformity index for the hydraulic fracturing well.
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Patent Agency Ranking
公开(公告)号：US12057005B2
公开(公告)日：2024-08-06
申请号：US17661185
申请日：2022-04-28
Applicant: Schlumberger Technology Corporation
Inventor： Mark S. Passolt
IPC: G06F30/20 , E21B10/00 , E21B41/00 , E21B43/00 , G08B25/00 , E21B7/06 , E21B47/007 , E21B47/022 , E21B47/18 , E21B49/00
CPC classification number: G08B25/00 , E21B10/00 , E21B41/00 , E21B43/00 , E21B7/06 , E21B47/007 , E21B47/022 , E21B47/18 , E21B49/00
Abstract: A system can include an individual workspace well design application that includes a graphical user interface that includes selectable graphical elements corresponding to subsystems of a wellsite system and graphical alert elements; a collaborative workspace well design application operatively coupled to the individual workspace well design application; and well design evaluators operatively coupled to the individual workspace well design application and the collaborative workspace well design application where the evaluators receive and analyze design parameters associated with one or more subsystems of a wellsite system to control transmission of one or more alerts that activate one or more graphical alert elements of the individual workspace well design application.
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7.发明公开公开(公告)号：US20240240554A1
公开(公告)日：2024-07-18
申请号：US18096402
申请日：2023-01-12
Applicant: Saudi Arabian Oil Company
Inventor： Diego Rovetta , Daniele Colombo , Eddy Revelo Obando , Ersan Turkoglu
CPC classification number: E21B47/18 , G01V1/282 , E21B2200/22
Abstract: Methods and systems for training a machine learning model to process microseismic data recorded during fracturing of a subterranean geological formation are configured for selecting a volume in the subterranean geological formation, the volume comprising a set of vertices and a center, the set of vertices defining a first dimension; determining seismogram data for sources at the vertices of the volume and at the center of the volume; generating training data from the seismogram data, the training data relating values of seismogram data to values of moment tensor components; training a machine learning model using the training data; and determining, based on the trained machine learning model, a second dimension defined for the set of vertices, the second dimension being a maximum value enabling an accuracy for outputs of the trained machine learning model that satisfies a threshold.
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公开(公告)号：US12006815B2
公开(公告)日：2024-06-11
申请号：US16944861
申请日：2020-07-31
Applicant: Schlumberger Technology Corporation
Inventor： Artem Valeryevich Kabannik
CPC classification number: E21B47/095 , E21B43/26 , E21B47/06 , E21B47/18 , G01V1/307 , G01V1/364 , G01V1/50 , G01V2210/324
Abstract: The present disclosure relates to a method and system for monitoring a wellbore object using a reflected pressure signal. The method discloses providing at least one pump for performing hydraulic fracturing or a source of hydraulic pulse so that pressure signal propagates along the wellbore and reflects from the borehole objects; providing pressure sensor at wellhead; preprocessing of registered reflected pressure signal and pump noise; transforming the registered reflected pressure signal and pump noise from the frequency domain into time-frequency representation with Short Time Fourier Transform (STFT), computing a pump noise mask; applying the pump noise mask to the STFT representation to obtain a filtered reflected pressure signal; processing of the filtered reflected pressure signal for determining the reflection time from the downhole object, calculating the depth of the downhole object from reflected pressure signal by multiplying of the reflection time by the pressure signal propagation velocity. This method allows to perform wellbore monitoring without stop of current operations.
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公开(公告)号：US11988089B2
公开(公告)日：2024-05-21
申请号：US17771858
申请日：2020-10-29
Applicant: Schlumberger Technology Corporation
Inventor： Edward Richards , Peter Tutton , Dean Gardner , Angie Theresia
CPC classification number: E21B47/18 , E21B44/005
Abstract: A downhole communication system includes a mud pulse generator that generates a set of pressure pulses in a pattern, the pattern including encoded data. A roll stabilized platform includes a turbine that is rotatable in response to the pressure pulses. The rotational rate of the turbine is correlated with a pressure value. A processor on the roll stabilized platform demodulates the pressure pulse pattern, and then decodes the encoded data.
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公开(公告)号：US11982181B2
公开(公告)日：2024-05-14
申请号：US17555446
申请日：2021-12-18
Applicant: RIME Downhole Technologies, LLC
Inventor： Robert A Weber , Manoj Gopalan
Abstract: A servo valve in a servo pulser used to restrict flow to a larger main valve includes external stops on a housing to define rotational starting/stopping points and sweep zones for a servo rotor having digits for contacting the stops. The digits extend longitudinally away from the servo valve seat and extend into the sweep zones. Interaction between the stops and the digits in the sweep zones limit rotation of the rotor to a swept arc between the stops. The servo pulser rotor oscillates between stopping points in alternating clockwise/counterclockwise sweeps. Each sweep in a given direction creates one full pulse: closed, open, and closed. The servo pulser carries out a feedback/decision loop between hydraulic pulses (and sweeps) that receives information on one or more previous pulses and calculates how fast or slow it should drive the servo rotor for the current pulse.
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