Abstract: An exemplary sequestering system, apparatus, and method are provided for carbon dioxide sequestration using at least one in-situ chemical species in fluid to produce at least one reaction product that sequesters carbon dioxide. In one embodiment, the system includes a reaction vessel and one or more diffusers. In one implementation, the reaction vessel is configured to receive a fluid supply, wherein the fluid includes at least one in-situ chemical species, and wherein the reaction vessel is further configured to receive a gas supply. The one or more diffusers are configured to receive at least a portion of the gas supply to diffuse carbon dioxide gas into at least a portion of the fluid, and wherein the reaction vessel is further configured to contain a mixture to allow the at least one in-situ chemical species to react with the carbon dioxide gas and forming at least one reaction product.

Abstract: An exemplary sequestering system and method are provided for carbon dioxide sequestration using at least one in-situ chemical species in water to produce at least one reaction product that sequesters carbon dioxide. In one embodiment, the automated system includes a reaction vessel and one or more diffusers. In one implementation, the reaction vessel is configured to receive a water supply, wherein the water includes at least one in-situ chemical species, and wherein the reaction vessel is further configured to receive a gas supply. The one or more diffusers are configured to receive at least a portion of the gas supply to diffuse carbon dioxide gas into at least a portion of the water, and wherein the reaction vessel is further configured to contain a mixture to allow the at least one in-situ chemical species to react with the carbon dioxide gas and forming at least one reaction product.

Abstract: An exemplary automated system and method are provided for monitoring and controlling the transfer of water to water tanks or containers during a water transfer process. In one embodiment, the automated system includes a first manifold, a plurality of controllable valves, a plurality of level indicators, a pump, controller(s), storage device, and display. In one implementation, the controller is configured to control the opening/closing of the plurality of controllable valves based, at least in part, on the water levels of the frac water tanks. The controller(s) may include one or more control modes. In other implementations, the system may include a second manifold (or additional manifolds) and the capability to blend water from two or more sources, such as from an impaired water source, using either a single or multiple-manifold configuration. In other implementations, an assembly is provided, such as a skid or trailer mounted assembly, for use in a mobile automated system.

Abstract: An exemplary automated system and method are provided for monitoring and controlling the transfer of water to frac water tanks during hydraulic fracturing. In one embodiment, the automated system includes a first manifold, a plurality of controllable valves, a plurality of level indicators, a pump, controller(s), storage device, and display. In one implementation, the controller is configured to control the opening/closing of the plurality of controllable valves based, at least in part, on the water levels of the frac water tanks. The controller(s) may include one or more control modes. In other implementations, the system may include a second manifold (or additional manifolds) and the capability to blend water from two or more sources, such as from an impaired water source, using either a single or multiple-manifold configuration. In other implementations, an assembly is provided, such as a skid or trailer mounted assembly, for use in a mobile automated system.

Abstract: A system and method are provided for measuring, at a fluid flow rate gauge, a fluid flow rate returning from a well, for providing, by the fluid flow rate gauge, a fluid flow rate output, for measuring, by a sand flow rate gauge, a sand flow rate of sand entrained in the fluid providing, by the sand flow rate gauge, a sand flow rate output, for receiving, at input circuits of a control system, the fluid flow rate output and the sand flow rate output, for providing, at a display controller of the control system, a display output; receiving, at a display panel, the display output, and for displaying, at the display panel, the fluid flow rate and the sand flow rate, in accordance with at least one embodiment. Embodiments can also include selecting between a first and second plug catcher or a first and second choke.

Abstract: An exemplary automated system and method are provided for monitoring and controlling the transfer of water to frac water tanks during hydraulic fracturing. In one embodiment, the automated system includes a first manifold, a plurality of controllable valves, a plurality of level indicators, a pump, controller(s), storage device, and display. In one implementation, the controller is configured to control the opening/closing of the plurality of controllable valves based, at least in part, on the water levels of the frac water tanks. The controller(s) may include one or more control modes. In other implementations, the system may include a second manifold (or additional manifolds) and the capability to blend water from two or more sources, such as from an impaired water source, using either a single or multiple-manifold configuration. In other implementations, an assembly is provided, such as a skid or trailer mounted assembly, for use in a mobile automated system.