Abstract: Prepare a work order (WO) by: collecting user input; running an initial CFD-based cementing operation simulation, outputting a CFD result including simulated annular placement of cement with insufficient DE. Choose a section of casing; simulate mechanically coupling a turbulator to adjust displacement efficiency (DE) of cement within the annulus before casing installation; adjust turbulator mechanical properties to maximize DE; create the WO including adjusting turbulator spacing along the casing of the wellbore to one turbulator per joint; perform an additional CFD-based simulation with adjusted turbulator spacing to update and output simulated annular placement of cement and DE; determine a change in DE; adjust the WO based on a further simulation loop; and finalize the WO. Cement the wellbore by: transporting turbulators to a wellsite; installing wellbore casing spaced by turbulator spacing of the finalized WO; and pumping cement into the annulus, the cement contacting the turbulators to reduce channeling.

Abstract: A variety of methods and systems are disclosed, including, in one example, a method including: providing a composition for a cement disposed in a wellbore; selecting injection conditions for an invasive fluid for an injection or storage operation; predicting a depth of penetration of the invasive fluid into the cement with a depth of penetration model based at least in part on the injection conditions and the composition for the cement; predicting a material property of the cement with a cement property model based at least in part on the predicted depth of penetration; performing an integrity analysis based at least in part on the predicted material property; and performing the injection or storage operation in the wellbore based at least in part on the integrity analysis.

Abstract: A pile can include: an elongated member; and a grout at least partially coupled to and for anchoring the elongated member, comprising: a resin; and a boron nitride nanotube structure comprising a boron nitride nanotube having a hexagonal boron nitride structure epitaxial to the boron nitride nanotube, wherein the grout has a first volume substantially free of the boron nitride nanotube structure, and a second volume comprising the boron nitride nanotube structure.

Abstract: A method of designing a cement slurry comprising retrieving, by a design process, a material inventory comprising a geographic cement and a set of design parameters. Determine, by a model within the design process, a design slurry composition based on at least one of the set of design parameters. Determine with a model using a machine learning process, a predicted thickening time by comparing the design slurry composition, the material inventory, and the set of design parameters to a plurality of datasets within a geographic database. Generate a slurry design in response to a set of validation results of a test sample exceeding the threshold value. Place the slurry design into a wellbore with a pumping operation.

Abstract: A method of designing a cement job may include: (a) selecting a cement job plan comprising: cement placement variables, wellbore construction variables, and subterranean formation properties; (b) calculating a predicted hydraulic pressure (Phydraulic) of the cement job plan using a physics based hydraulic model; (c) calculating a pressure differential (?P) of the cement job plan using a data driven hydraulic model; (d) calculating a predicted observed surface pressure (Pobserved) from the pressure differential (?P) and a predicted hydraulic pressure (Phydraulic); (e) comparing the predicted observed surface pressure (Pobserved) to a surface pressure requirement window, wherein steps (a)-(e) are repeated if the predicted observed surface pressure (Pobserved) is within the surface pressure requirement window, wherein each repeated step of selecting comprises selecting at least one different cement placement variables than previously selected, or step (f) is performed if the if the predicted observed surface pre

Abstract: A wellbore servicing method comprising transporting a pump unit comprising a unit controller and pumping equipment to a wellsite. Executing a design process on the unit controller to determine a concentration of a wellbore treatment fluid at a wiper plug within an oilfield tubular. The design process utilizes a CFD model to generate a static mesh representative of the geometry of the oilfield tubular, locate the wiper plug within the static mesh, and determine a fluid velocity on each side of the wiper plug with flexible static mesh cells. The CFD model can generate a prediction of the concentration of the wellbore treatment fluids in response to the wiper plug reaching a target location within the oilfield tubular.

Abstract: A method for controlling, tailoring, monitoring and executing a pumping operation of a wellbore treatment into a wellbore with an advisory process accessing pumping simulation results from a pumping model group. The advisory process can determine a change in the wellbore environment by comparing periodic datasets indicative of a pumping operation to a set of operational threshold values. The advisory process can identify the change in the wellbore environment from pumping simulation results generated by a pumping model group with pumping model inputs comprising portions of the periodic datasets. The advisory process can generate a modified pumping procedure in response to the identification of the change in the wellbore environment. The pumping model group can generate and forecast a probability of the pumping operation achieving a job objective.

Abstract: A method of designing a grout material for an anchoring pile system based on the analysis of a stress state of the anchoring pile constructed into a subterranean formation. An advisory process can utilize a model to produce a numerical model of the anchoring pile, a model to determine the operational loads, a model to determine the grout material, and a model to determine the stress state of the grout interfaces. The group of models can determine a probability of failure of the grout material, a probability of failure of a grout interface, and a predicted lifespan of the grout materials.

Abstract: Methods of the present disclosure relate to tailoring cement compositions to withstand carbon dioxide injection. A method comprises predicting a depth of carbonation in a cement sheath; predicting spatially varying mechanical properties of the cement composition due to the carbonation; and determining a mechanical response of the cement sheath based on the spatially varying mechanical properties of the cement composition.

Abstract: Systems and methods related to preparing foamed cement for laboratory analysis are provided. A prepared cement slurry is placed in a cement reservoir cell configured to pressurize the cement slurry contained within the cement reservoir cell to a capture pressure. After pressurization, the cement slurry and a compressed gas are introduced into a foam generator. Foamed cement generated in the foam generator is introduced from the tee into a foam capture cell where it can cure prior to analysis.

Abstract: Methods of wellbore cementing are provided. A method of generating a wellbore treatment fluid may include: classifying a plurality of solid particulates using correlations; calculating a reactive index and/or a water requirement for at least one of the solid particulates; and selecting two or more solid particulates from the plurality of solid particulates to create a wellbore treatment fluid.

Abstract: Reactivity mapping methods are provided. A method may include: analyzing each of a group of inorganic particles to generate data about physical and/or chemical properties of the inorganic particles; and generating correlations between the properties of inorganic particles based on the data.

Abstract: Methods of wellbore cementing are provided. A method of designing a cement composition may include: selecting a target heat of hydration for a target time and temperature; selecting one or more cementitious components and a weight percent for each of the one or more cementitious components such that a sum of a heat of hydration of the one or more cementitious components is less than or equal to the target heat of hydration; preparing the cement composition; and allowing the cement composition to set.

Abstract: Methods of the present disclosure relate to quantitative assessments of the risk of damage to cement sheaths due to cyclic loads. A method comprises selecting cement compositions; performing wellbore integrity analyses using models for cement sheaths, each cement sheath comprising a selected cement composition; and determining a number of cycles to failure for each cement sheath.

Abstract: Methods of the present disclosure relate to assessing and mitigating the risk of pore pressure buildup as part of designing a cement formulation. A method comprises: performing wellbore integrity analysis to provide a stress state of a cement sheath, wherein the cement sheath is a model; modifying the stress state of the cement sheath due to fluid influx through the cement sheath; comparing the modified stress state to failure properties for the cement sheath; and formulating a cement composition based on at least the modified stress state.

Abstract: Reactivity mapping methods are provided. A method may include: analyzing each of a group of inorganic particles to generate data about physical and/or chemical properties of the inorganic particles; and generating correlations between the properties of inorganic particles based on the data.

Abstract: Methods of wellbore cementing are provided. A method of generating a wellbore treatment fluid may include: classifying a plurality of solid particulates using correlations; calculating a reactive index and/or a water requirement for at least one of the solid particulates; and selecting two or more solid particulates from the plurality of solid particulates to create a wellbore treatment fluid.

Abstract: Methods of wellbore cementing are provided. A method of generating a wellbore treatment fluid may include: classifying a plurality of solid particulates using correlations; calculating a reactive index and/or a water requirement for at least one of the solid particulates; and selecting two or more solid particulates from the plurality of solid particulates to create a wellbore treatment fluid.

Abstract: Methods of wellbore cementing are provided. A method of designing a cement composition may include: selecting a target heat of hydration for a target time and temperature; selecting one or more cementitious components and a weight percent for each of the one or more cementitious components such that a sum of a heat of hydration of the one or more cementitious components is less than or equal to the target heat of hydration; preparing the cement composition; and allowing the cement composition to set.

Abstract: Methods of wellbore cementing are provided. A method of designing a cement composition may include: selecting a target heat of hydration for a target time and temperature; selecting one or more cementitious components and a weight percent for each of the one or more cementitious components such that a sum of a heat of hydration of the one or more cementitious components is less than or equal to the target heat of hydration; preparing the cement composition; and allowing the cement composition to set.