Baker Hughes Oilfield Operations LLC

Eliah Everhard

Jason B Norman

Reza Ettehadi Osgouei

Mehrdad Gharib Shirangi

Charles Anthony Thompson

John Morin

Xu Huang

William A Moss, Jr

Stephen Duffy

Armin Kueck

Charles A Thompson, Jr

John Abhishek Raj Bomidi

Saravanan Hiriaraman

James Herbert May

Franklin Guillermo Valbuena

Michael L Doster

A system may include an earth-boring tool, an image capture device, at least one processor, and at least one non-transitory computer-readable medium. The system may obtain a three-dimensional representation of an earth-boring tool and provide one or more positioning indicators to a user via the image capture device responsive to the geometry position data. The system may also generate a two-dimensional image of the earth-boring tool and perform object detection on the generated two-dimensional image to identify one or more geometrical features represented in the generated two-dimensional image.

Methods for providing one or more positioning indicators via an image capture device and related systems

A cutting element for an earth-boring tool includes a substrate and a volume of polycrystalline diamond on the substrate. The volume of polycrystalline diamond has exterior surfaces defining a front cutting surface, a peripheral edge, and at least a pair of angled tip surfaces defining at least one cutting tip between the pair of angled tip surfaces. The front cutting surface includes a first planar region and a second planar region, one or both of which may include a cutting tip. The front cutting surface may be characterized as generally concave. Earth-boring tools include a tool body and one or more such cutting elements secured to the tool body.

Cutting elements and geometries for reduced vibrations, earth-boring tools, and related methods

Examples described herein provide a computer-implemented method that includes determining, using a digital twin, a task to be performed based at least in part on real-time data. The method further includes initiating at least one of a drone, a collaborative robot, or a warehouse system to perform the task.

Autonomous fluid management using fluid digital twins

Examples described herein provide a system that includes a pallet. The pallet includes a base and a support member extending from the base. The support member is configured to support another pallet upwardly adjacent to and spaced from goods on the pallet. The support member is configured with an indexing feature. The system further includes a robot including a pallet engaging member configured to engage the pallet at the indexing feature on the support member. The system further includes a control system to control the robot based on a task.

Automated storage optimization and stackable pallets

Time-based sag in a fluid can be measured non-invasively using a time-based sag testing apparatus by measuring the change in rotational inertia over time of fluid having no initial density gradient and a center of mass initially coincident with its geometric center.

Non-invasive time-based sag testing apparatus

A testing system for a wellbore operation and method of testing a fluid sample from a wellbore. A fluid sample is obtained from the wellbore operation. The fluid sample is received at a first test station having a first robot arm for performing a test on the fluid sample. A controller receives data on the wellbore operation, selects the test based on the data and controls the first robot arm to perform the test. A result of the test is used to adjust a parameter of the wellbore operation.

Growing community of inventors

The Woodlands, TX, United States of America

Eliah Everhard