Abstract: Provided is an anchoring/sealing subassembly, a well system, and a method. The anchoring/sealing subassembly, in one aspect, includes an isolation element mandrel, and an isolation element positioned about the isolation element mandrel. The anchoring/sealing subassembly, in one aspect, further includes a shear mandrel coupled to the isolation element mandrel, and a ratch latch body coupled to the isolation element. The anchoring/sealing subassembly, in one aspect; additionally includes a row of radially spaced apart slip ring shear feature openings located in a slip ring, and a row of radially spaced apart shear mandrel shear feature openings located in an isolation element mandrel, the row of slip ring shear feature openings and the row of shear mandrel shear feature openings operable to receive ones of shear features to shearingly couple the slip ring and the isolation element mandrel together.

Abstract: Provided are a system and methods for a unified framework and tooling for lane boundary annotation, which include obtaining sensor data along a trajectory corresponding to locations of a base map. Features are extracted from the sensor data. The features are input into a trained neural network that outputs overlapping rich feature maps comprising polylines. The overlapping rich feature maps are aggregated according to an aggregation function to obtain raster image. Vectorization is applied to the raster images to extract roadway geometry represented by globally consistent polylines.

Abstract: Provided is a multilateral junction (MLT), a well system, and a method for forming a well system. The MLT, in one aspect, includes a y-block having a housing with a single first bore and second and third bores extending therein, the second and third bores defining second and third centerlines. The MLT, in this aspect, further includes a mainbore leg having a first mainbore leg end coupled to the second bore and a second opposing mainbore leg end, and a lateral bore leg having a first lateral bore leg end coupled to the third bore and a second opposing lateral bore leg end. In this aspect, the mainbore leg and the lateral bore leg are twisted with respect to the second and third bore such that a first plane taken through centerlines of the second opposing mainbore leg end and the second opposing lateral bore leg end is angled.

Abstract: Provided is a multilateral junction (MLT), a well system, and a method for forming a well system. The MLT, in one aspect, includes a y-block having a housing with a single first bore and second and third bores extending therein, the second and third bores defining second and third centerlines. The MLT, in this aspect, further includes a mainbore leg having a first mainbore leg end coupled to the second bore and a second opposing mainbore leg end, and a lateral bore leg having a first lateral bore leg end coupled to the third bore and a second opposing lateral bore leg end. In this aspect, the mainbore leg and the lateral bore leg are twisted with respect to the second and third bore such that a first plane taken through centerlines of the second opposing mainbore leg end and the second opposing lateral bore leg end is angled.

Abstract: Provided is a multilateral leg bore, a multilateral junction, and a well system. The multilateral leg bore, in one aspect, includes a unitary housing having a first end and a second opposing end defining a length (L). In accordance with this aspect, the multilateral junction includes three or more bores formed in the housing and extending along the length (L).

Abstract: Provided is a downhole tool, a y-block, a well system, and a method for forming a well system. The downhole tool, in one aspect, includes a bottom hole assembly (BHA) having an uphole end and a downhole end, and a shroud positioned around and proximate the downhole end of the BHA, the shroud operable to slide relative to the BHA. The downhole tool, in this aspect, may further include one or more shear features coupling the shroud to the downhole end of the BHA.

Abstract: Provided is a multilateral junction (MLT), a well system, and a method for forming a well system. The MLT, in one aspect, includes a y-block having a housing with a single first bore and second and third bores extending therein, the second and third bores defining second and third centerlines. The MLT, in this aspect, further includes a mainbore leg having a first mainbore leg end coupled to the second bore and a second opposing mainbore leg end, and a lateral bore leg having a first lateral bore leg end coupled to the third bore and a second opposing lateral bore leg end. In this aspect, the mainbore leg and the lateral bore leg are twisted with respect to the second and third bore such that a first plane taken through centerlines of the second opposing mainbore leg end and the second opposing lateral bore leg end is angled.

Abstract: Provided is a y-block, a multilateral junction, and a method for forming a well system. The y-block, in one aspect, includes a housing having a first end and a second opposing end, and a single first bore extending into the housing from the first end, the single first bore defining a first centerline. The y-block according to this aspect further includes second and third separate bores extending into the housing and branching off from the single first bore, the second bore defining a second centerline and the third bore defining a third centerline, wherein the second and third centerlines are angled relative to one another.

Abstract: Provided is a method for accessing a well system. The method, in one aspect, includes placing a multilateral junction proximate an intersection between a main wellbore and a lateral wellbore, the multilateral junction including a y-block, a mainbore leg coupled to a second bore of the y-block and extending into the main wellbore, and a lateral bore leg coupled to a third bore of the y-block and extending into the lateral wellbore. The method, in one aspect, further includes selectively accessing at least one of the main wellbore or the lateral wellbore with a fracturing string through the y-block.

Abstract: Assemblies and methods are provided for positioning a sealing tool within a receptacle and pressure testing a seal between the sealing tool and the receptacle. The assembly may be coupled to the sealing tool for latching the sealing tool into the receptacle. The assembly may include a projection that is movable between a coupled position and an uncoupled position. In the coupled position, the projection may couple the assembly to the sealing tool. In the uncoupled position, the projection may be positioned such that the assembly is not coupled to the sealing tool. The projection may move from the coupled position to the uncoupled position in response to determining a seal is established between the sealing tool and the receptacle.

Abstract: Assemblies and methods are provided for positioning a sealing tool within a receptacle and pressure testing a seal between the sealing tool and the receptacle. The assembly may be coupled to the sealing tool for latching the sealing tool into the receptacle. The assembly may include a projection that is movable between a coupled position and an uncoupled position. In the coupled position, the projection may couple the assembly to the sealing tool. In the uncoupled position, the projection may be positioned such that the assembly is not coupled to the sealing tool. The projection may move from the coupled position to the uncoupled position in response to determining a seal is established between the sealing tool and the receptacle.

Abstract: A method, apparatus, and program product model stress characteristics of a subsurface formation based at least in part on acoustic data and image data associated with the subsurface formation. The acoustic data is analyzed to determine acoustic based stress values, and the image data is analyzed to determine image based stress values. The acoustic based stress values and the image based stress values are integrated to generate an integrated stress profile that includes one or more modeled stress characteristics of the subsurface volume.

Abstract: A method can include receiving data that characterizes anisotropy of a formation; receiving a model that models one or more planes of weakness in an anisotropic formation; and, based at least in part on the model and the data, outputting information germane to stability of a bore in an anisotropic formation.

Abstract: A method, apparatus, and program product model stress characteristics of a subsurface formation based at least in part on acoustic data and image data associated with the subsurface formation. The acoustic data is analyzed to determine acoustic based stress values, and the image data is analyzed to determine image based stress values. The acoustic based stress values and the image based stress values are integrated to generate an integrated stress profile that includes one or more modeled stress characteristics of the subsurface volume.

Abstract: Fibrous structures that exhibit a Geometric Mean Overhang Length (GM Overhang Length) of less than 3.65 cm as measured according to the Flexural Rigidity Test Method and/or a Cross-Machine Direction Overhang Length (CD Overhang Length) of less than 3.875 cm as measured according to the Flexural Rigidity Test Method described herein are provided.

Abstract: A method can include receiving data that characterizes anisotropy of a formation; receiving a model that models one or more planes of weakness in an anisotropic formation; and, based at least in part on the model and the data, outputting information germane to stability of a bore in an anisotropic formation.

Abstract: A retention device for the retention of matched pairs of drumsticks. The device can include at least two retention clamps, each clamp enclosing a channel, and a coupler connecting the at least two retention clamps to each other. Each clamp can have sufficient flexibility so as to allow for the insertion of a drumstick into the channel and so as to frictionally retain a drumstick within the channel. Furthermore, each clamp can include a pair of arms, each arm having a distal end, the distal ends of the arms defining a gap therebetween.

Abstract: Fibrous structures that exhibit a Geometric Mean Flexural Rigidity (GM Flexural Rigidity) of less than 40.0 mg*cm2/cm and/or less than 18.0 mg*cm2/cm as measured according to the Flexural Rigidity Test Method described herein and/or a Cross-Machine Direction Flexural Rigidity (CD Flexural Rigidity) of less than 21.0 mg*cm2/cm and/or less than 18.0 mg*cm2/cm and/or less than 17.4 mg*cm2/cm and/or less than 17.25 mg*cm2/cm as measured according to the Flexural Rigidity Test Method described herein are provided.

Abstract: Fibrous structures that exhibit a Geometric Mean Overhang Length (GM Overhang Length) of less than 3.65 cm as measured according to the Flexural Rigidity Test Method and/or a Cross-Machine Direction Overhang Length (CD Overhang Length) of less than 3.875 cm as measured according to the Flexural Rigidity Test Method described herein are provided.