Halliburton Energy Services, Inc.

Other

Lookout, Inc.

Caleb Brett Usa, Inc.

Halliburton Services

Lutron Technology Company LLC

Just, Inc.

Christopher Michael Jones

Michael Thomas Pelletier

Bin Dai

David L Perkins

Darren George Gascooke

Anthony Herman Van Zuilekom

Robert Paul Freese

Dingding Chen

James Martin Price

William Joseph Soltmann

Li Gao

Wei Zhang

Mark Anton Proett

Ahmed Elsayed Fouda

Etienne M Samson

Michel Joseph LeBlanc

Xiang Wu

Songhua Chen

Daniel Joshua Stark

B Raghava Reddy

Ashok K Santra

Glenn Andrew Wilson

John Laureto Maida, Jr

Michael Linley Fripp

Paul F Rodney

Boguslaw Wiecek

Roger Lynn Schultz

Dale E Jamison

Erica L Clymer

Daniel David Gleitman

Neal Gregory Skinner

Kevin Patrick Mahaffey

Jay Paul Deville

Harry D Smith, Jr

David Luke Richardson

John Gunther Hering

Edward Harrigan

Ilker R Capoglu

Michael S Bittar

William Walter Shumway

Donn Jason Brown

Ketankumar Kantilal Sheth

Benjamin F Bard

Cyrus A Irani

Robert J Murphy

Mathew Dennis Rowe

Gregory N Gilbert

Eric James Davis

Clive D Menezes

Shenchi Tian

Robert S Atkinson

Jing Shen

Mehdi Alipour Kallehbasti

Michael Neil Simcock

Jian Li

Richard Neal Gardner

Louis W Elrod

Peter Ojo Olapade

Tian He

Hua Xia

Rory Dennis Daussin

Ola Tunheim

James Robert MacLennan

Jeffrey James Crawford

David Michael Loveless

Junwen Dai

Rohin Naveena-Chandran

Laurence James Abney

Marian Morys

Megan Renee Pearl

Nagaraja K Pai

Ming Gu

Lizheng Zhang

Aditya B Nayak

Ayan Kanti Mandal

Raj Pai

Craig William Godfrey

Philippe Quero

James E Masino

Rhythm Agarwal

John Andrew Quirein

John B Nill

Jonas Toelke

Yuan Xie

Sudhir Kumar Gupta

Imran Sharif Vehra

Robert Charles De Long

Matthew L Lee

Nathan James Harder

Kyle Thomas Barco

Philip Edmund Fox

Neil R Orchowski

Derrick Winston Lewis

Amit Padhi

Gregory Paul Perez

Andrew Kirkwood

Gary Dean Althoff

Thomas Lee Olson

Lucas Kurtis Fontenelle

Michael John Christie

A method and system for removing a filter cover. A system and method may comprise a downhole fluid sampling tool including a tool body; a flow port disposed on the tool body; a sample chamber disposed within the tool body and fluidly coupled to the flow port; a pump disposed within the tool body. In examples, the pump is configured to pump a fluid through the flow port into the sample chamber; a filter disposed on an inlet of the flow port, wherein the filter is configured to filter the fluid entering the flow port; and a removable filter cover configured to prevent fluid contact with the filter.

Protection of a wellbore tool using fluid medium dependent material

A method may comprise disposing a downhole pressure sampling tool into a wellbore; calculating a prior distribution based at least in part on one or more proxy logs, moving the downhole pressure sampling tool to a first location in the wellbore, taking at least one measurement with the downhole pressure sampling tool at the first location in the wellbore, calculating a posterior distribution based at least in part on the at least one measurement and the prior distribution, identifying a second location based at least in part on the posterior distribution, and moving the downhole pressure sampling tool to the second location.

Sequential selection of locations for formation pressure test for pressure gradient analysis

In some embodiments, a downhole logging tool configured for placement in a wellbore comprises a first magnet configured to activate a first volume of ferromagnetic fluid disposed between the downhole logging tool and the wellbore to achieve a first seal between a primary analysis region of the downhole logging tool and a wellbore fluid.

Wellbore exclusion fluid method and apparatus for downhole logging

A fluid flow rate sensor. The fluid flow rate sensor comprises an elongated structure; a heating element installed into a first end of the elongated structure; a first temperature transducer coupled to an outside of the elongated structure at a first predefined location; a second temperature transducer coupled to the outside of the elongated structure at a second predefined location; and a control unit that is configured to turn the heating element on and off, to analyze a first temperature indication received from the first temperature transducer, to analyze a second temperature indication received from the second temperature transducer, to determine a flow rate of a fluid that is in intimate contact with the outside of the elongated structure based on analyzing the first temperature indication and the second temperature indication, and to output the flow rate via a communication line.

System and method of determining reservoir fluid flow condition and composition downhole

The present disclosure relates to systems and methods of determining a wellbore position in a subterranean formation by using gravity sensors to detect a gravity anomaly related to a presence of the wellbore, contents within the wellbore, and or fluid flowing through an interface of the wellbore. A model of the subterranean formation predicts a gravity profile, including the gravity anomaly, and the model may be constrained with a depth of the gravity anomaly as calculated with at least one of a known dimension or a known gravitational field change related to the gravity anomaly. The wellbore position is determined within the model by changing model input data until the gravity profile converges with the gravity anomaly.

Surface tracking systems and methods for downhole wellbore position and trajectory determination

Methods to identify fluid holdups during downhole fluid sampling operations includes obtaining, using a sampling tool positioned within a wellbore, one or more fluid measurements using at least one sensor having a first set of spatial resolution, obtaining one or more second fluid measurements having a second spatial resolution, calculating a first fluid ratio using the at least one sensor having the first set of spatial resolution measurements, calculating a second fluid ratio of the second fluid measurements using the at least one sensor having the second set of spatial resolution, wherein the second set of spatial resolution is lower than the first set of spatial resolution, and identifying fluid holdup within the sampling tool when the differences between the two fluid ratios are higher than a limit or a similarity of the two fluid ratios are lower than a limit.

Fluid holdup monitoring in downhole fluid sampling tools

Systems and methods of separating multiphase flows in a flowline of a downhole fluid sampling and analysis tool, measuring target ions in the water phase, and separating between formation water and injection water are described. The system to separate the multiphase flows includes a three-dimensional barrier permeable to water and repelling oil and/or drilling mud filtrate into at least one bypass channel within the flowline of the downhole fluid sampling and analysis tool. For instance, the system to measure the targeted ions includes the system to separate the multiphase flows and an optical sensor, wherein the three-dimensional barrier has an aperture inside the three-dimensional barrier to let a light from an optical sensor go through perpendicular to the flowline.

Optical detection of ION water chemistry in oil and water

In general, in one aspect, embodiments relate to a method that includes assembling a downhole tool from a plurality of subassemblies with a robotic tool assembly disposed on a subsea tree at a sea-floor in a subsea environment. The method may also include introducing the downhole tool into a wellbore, traversing the wellbore with the downhole tool to reach one or more target depths, performing at least a wellbore operation with the downhole tool at the one or more target depths, and retrieving the downhole tool from the wellbore after performing the wellbore operation.

Sea floor automatic well intervention

Described herein are systems and techniques for monitoring for monitoring and evaluating conditions associated with a wellbore and wellbore operations that use neural operators instead of computationally intensive iterative differential equations. Such systems and techniques allow for determinations to be made as operations associated with a wellbore are performed. Instead of having to wait for computationally intensive tasks to be performed or take risks of proceeding with a wellbore operation without real-time evaluations being performed, these wellbore operations may be continued while determinations are timely made, thus improving operation of computing systems that perform evaluations and that make decisions regarding safely and efficiently performing wellbore operations such as drilling a wellbore, cementing wellbore casings in place, or injecting fluids into formations of the Earth.

Three-dimensional inversion of multi-component electromagnetic measurements using a fast proxy model

A device for coating an interior surface of a housing defining a volume comprising a plurality of reactant gas sources including reactant gases for one or more surface coating processes; first and second closures to sealingly engage with an inlet and outlet of the volume of the housing to provide an enclosed volume; a delivery line fluidically coupled to the first closure and the plurality of reactant gas sources to deliver the reactant gases to the enclosed volume; and an output line fluidically coupled to the second closure to remove one or more reactant gases, byproduct gases, or both from the enclosed volume. A method for coating an interior surface of a housing is also provided.

Depositing coatings on and within housings, apparatus, or tools

An apparatus comprises a formation tester tool to be positioned in a borehole within a formation, wherein the formation tester tool comprises a pressure sensor and a pad that is radially extendable with respect to an axis of the formation tester tool, and wherein the pressure sensor is inside the pad. The apparatus comprises a first radially extendable inner packer that is axially above the pad with respect to the axis of the formation tester tool and a second radially extendable outer packer that is axially above the first radially extendable inner packer. The apparatus comprises a third radially extendable inner packer that is axially below the pad with respect to the axis of the formation tester tool and a fourth radially extendable outer packer that is axially below the third radially extendable inner packer.

Pressure measurement mitigation

A method and system for correlating two or more logs. The method may include reviewing an openhole log to identify one or more depths within a wellbore for testing, disposing a fluid sampling tool into the wellbore, creating a correlation log with the fluid sampling tool, depth-matching the correlation log to the openhole log to create a relative shift table, and moving the fluid sampling tool to the one or more depths within the wellbore based at least in part on the relative shift table. The system may include a fluid sampling tool disposed in a wellbore to create a correlation log and an information handling system connected to the fluid sampling tool.

Automatic landing of formation testing tools

Systems and methods are provided for facilitating continuous affinity-based separation of phases in multi-phase formation fluid in a downhole environment. A system can comprise a formation sampler that samples a formation to gather multi-phase formation fluid in a continuous flow through a wellbore during a testing pump out of the formation. The system can also comprise a phase separator comprising one or more affinity-based separators that continuously separates one or more phases of the multi-phase formation fluid through either or both diffusion or flow while downhole in the wellbore during the testing pump out.

Continuous separation of multi-phase formation fluids during downhole sampling and measuring

Described herein are systems and techniques for improving an accuracy of determinations made using data sensed in a wellbore or in a laboratory. Nuclear magnetic resonance (NMR) sensing devices may be used to collect data in a wellbore or lab. NMR sensing devices include a magnet (e.g., a permanent magnet or electromagnet) that provides a magnetic field that aligns the spins of protons in substances near the NMR sensing device. The magnetic field strength provided by the magnet of the NMR sensing device affects the sensitivity of the NMR sensing device and affects frequencies that the NMR sensing device effectively uses when the NMR sensing device operates. Systems and techniques of the present disclosure may measure concentrations of lithium in brine deposits when identifying particular brine deposits that include sufficient lithium concentrations to justify extracting lithium from those particular brine deposits.

Downhole detection of lithium containing minerals by lithium 7 nuclear magnetic resonance

Aspects of the subject technology relate to systems and methods for configuring links or switches that connect analog circuit elements. These analog circuit elements may be connected to a plurality of sensors that may sense different types of data. For example, these sensors may sense acoustic data, electromagnetic (EM) data, temperature, pressure, and possibly other metrics that may be located in a wellbore of an oil or gas well. These analog circuits may be configured as needed (e.g., on-the-fly) to perform optimized types of computations that may include the solving of differential equations. Examples of analog circuits that may be incorporated into a sensing system include yet are not limited to operational amplifier circuits or memcomputing devices, other components, or combinations thereof. Configured analog circuits may be coupled to digital electronics that perform other functions.

Digitally reconfigurable analog computations for solving optimization problems

Growing community of inventors

Houston, TX, United States of America

Christopher Michael Jones