Abstract: A method for determining absorption properties in clay deposits is provided that includes obtaining a clay sample, preparing the clay sample, analyzing the clay sample, and applying one or more correlative models to the clay sample. Additionally a system for use in determining absorption properties in clay deposits is provided that includes a plurality of inorganic particles, an analytical instrument configured to gather physical and/or chemical data about the inorganic particles, and a computer system configured to accept the physical and/or chemical data and/or generate correlations between the inorganic particles based on the data.

Abstract: A method for determining absorption properties in clay deposits is provided that includes obtaining a clay sample, preparing the clay sample, analyzing the clay sample, and applying one or more correlative models to the clay sample. Additionally a system for use in determining absorption properties in clay deposits is provided that includes a plurality of inorganic particles, an analytical instrument configured to gather physical and/or chemical data about the inorganic particles, and a computer system configured to accept the physical and/or chemical data and/or generate correlations between the inorganic particles based on the data.

Abstract: Various embodiments disclosed relate to dry powder fire-fighting compositions. In various embodiments, the present invention provides a method of fighting a fire. The method can include contacting at least one of a fire and a source thereof with a composition including bentonite and aluminum hydroxide.

Abstract: Various embodiments disclosed relate to absorbent clumping animal litter compositions, and to methods of using and making the same. In some embodiments, the present invention provides an absorbent clumping animal litter composition including an absorbent component and a pumice component.

Abstract: Various embodiments disclosed relate to absorbent clumping animal litter compositions, and to methods of using and making the same. In some embodiments, the present invention provides an absorbent clumping animal litter composition including an absorbent component and a pumice component.

Abstract: Various embodiments disclosed relate to absorbent clumping animal litter compositions, and to methods of using and making the same. In some embodiments, the present invention provides an absorbent clumping animal litter composition including an absorbent component and a pumice component.

Abstract: Various embodiments disclosed relate to dry powder fire-fighting compositions. In various embodiments, the present invention provides a method of fighting a fire. The method can include contacting at least one of a fire and a source thereof with a composition including bentonite and aluminum hydroxide.

Abstract: Beneficiating drilling fluids that comprise low-quality clay and high-quality clay may be performed by adding a polymer and a high-quality clay to a fluid that comprises an aqueous base fluid and a low-quality clay, so as to yield a drilling fluid, wherein the ratio of the low-quality clay to the high-quality clay is about 90:10 to about 80:20.

Abstract: Various embodiments disclosed relate to absorbent clumping animal litter compositions, and to methods of using and making the same. In some embodiments, the present invention provides an absorbent clumping animal litter composition including an absorbent component and a pumice component.

Abstract: Stabilizing smectite shale may include treating a smectite shale in a subsurface formation with a dewatering fluid so as to yield a stabilized smectite shale, the dewatering fluid comprising an aqueous base fluid and a dewatering additive. In some instances, at least a portion of a highwall in a highwall mine may be formed at a highwall mine site comprising stabilized smectite shale.

Abstract: Methods to control dewatering of confined, saturated formations in excavation mines may include treating a portion of an untreated smectite shale barrier with a dewatering fluid thereby yielding a treated smectite shale barrier, wherein the untreated smectite shale barrier is associated with a confined, saturated formation that comprises water, and wherein the dewatering fluid comprises an aqueous base fluid and a dewatering additive; and draining at least a portion of the water from the confined, saturated formation through the treated smectite shale barrier. In some instances, the dewatering additive may include potassium citrate and potassium nitrate each independently in a concentration of about 0.5% to about 5% by weight of the aqueous base fluid.

Abstract: Stabilizing smectite shale may include treating a smectite shale in a subsurface formation with a dewatering fluid so as to yield a stabilized smectite shale, the dewatering fluid comprising an aqueous base fluid and a dewatering additive. In some instances, at least a portion of a highwall in a highwall mine may be formed at a highwall mine site comprising stabilized smectite shale.

Abstract: Methods to control dewatering of confined, saturated formations in excavation mines may include treating a portion of an untreated smectite shale barrier with a dewatering fluid thereby yielding a treated smectite shale barrier, wherein the untreated smectite shale barrier is associated with a confined, saturated formation that comprises water, and wherein the dewatering fluid comprises an aqueous base fluid and a dewatering additive; and draining at least a portion of the water from the confined, saturated formation through the treated smectite shale barrier. In some instances, the dewatering additive may include potassium citrate and potassium nitrate each independently in a concentration of about 0.5% to about 5% by weight of the aqueous base fluid.

Abstract: Beneficiating drilling fluids that comprise low-quality clay and high-quality clay may be performed by adding a polymer and a high-quality clay to a fluid that comprises an aqueous base fluid and a low-quality clay, so as to yield a drilling fluid, wherein the ratio of the low-quality clay to the high-quality clay is about 90:10 to about 80:20.

Abstract: Beneficiated clay viscosifying additives may include a low-quality clay and a polymer coated high-quality clay that comprises a high-quality clay at least partially coated with a polymer, wherein the ratio of low-quality clay to high-quality clay is about 90:10 to about 80:20 by weight. Such beneficiated clay viscosifying additives may be used in drilling fluids.