Abstract: The present disclosure relates generally to a system and method for rearranging a first system of software applications into a second system of software applications. The system includes a user device, a network, a data storage unit, and a server. The user device can display a first system of applications. The user can offer a number of rearrangements by clicking and dragging the applications and connections points to their desired positions. A predictive model can produce a second system of applications based on these rearrangements.

Abstract: A system and method for calculating optimal parameters for drilling are provided. The system includes a memory, a data storage unit, and a processor. The method comprises retrieving well information, analyzing the information, reading current and past well parameters, and calculating an optimal set of parameters by a predetermined algorithm.

Abstract: A missile for a hydraulic fracturing system can include a high-pressure (HP) missile manifold having a plurality of HP input channels, a HP output channel, and a main HP channel disposed between the plurality of HP input channels and the HP output channel, where each of the plurality of HP input channels is configured to couple to and receive a fracturing fluid from a pump truck, where the HP output channel is configured to couple to and send the fracturing fluid to a main manifold, and where the main HP channel has a widening section along its length that separates a first HP portion of the main HP channel having a first HP diameter and a second HP portion of the main HP channel having a second HP diameter.

Abstract: A system for fracturing multiple wellbores on a multi-well pad can include a missile that receives high-pressure fracturing fluid from a plurality of pump truck. The system can also include a main manifold that receives the high-pressure fracturing fluid from the missile, where the main manifold includes multiple valves and multiple output channels, where each of the valves are operated between an open position and a closed position. The system can further include multiple wellbores including a first wellbore, a second wellbore, and a third wellbore, where the wellbores are connected to the output channels of the main manifold. The valves of the main manifold can be operated to enable simultaneous flow of the high-pressure fracturing fluid to the first wellbore, the second wellbore, and the third wellbore so that the first wellbore, the second wellbore, and the third wellbore are fractured simultaneously.

Abstract: The systems and methods generally apply a machine learning algorithm that is configured to automatically reconcile and update field costs. The algorithm may also predict when field cost data has not captured all or substantially all of the costs based on historical data. The systems and methods may either flag the missing cost or automatically populate at least a portion or up to all of any missing field costs. Thus, machine learning and data analytic techniques may be implemented to reconcile field costs by using, for example, invoice and financial information.

Abstract: A system for fracturing multiple wellbores on a multi-well pad can include a missile that receives high-pressure fracturing fluid from a plurality of pump truck. The system can also include a main manifold that receives the high-pressure fracturing fluid from the missile, where the main manifold includes multiple valves and multiple output channels, where each of the valves are operated between an open position and a closed position. The system can further include multiple wellbores including a first wellbore, a second wellbore, and a third wellbore, where the wellbores are connected to the output channels of the main manifold. The valves of the main manifold can be operated to enable simultaneous flow of the high-pressure fracturing fluid to the first wellbore, the second wellbore, and the third wellbore so that the first wellbore, the second wellbore, and the third wellbore are fractured simultaneously.

Abstract: A system for developing multiple subterranean wellbores in a land-based field can include a first operational platform disposed over a first entry point of a first subterranean wellbore at a first time. The system can also include a second operational platform disposed over a second entry point of a second subterranean wellbore at the first time, where the first entry point and the second entry point are located proximate to each other. The system can further include first field equipment disposed on the first operational platform. The system can also include a second field equipment disposed on the second operational platform. The first field equipment can be used to develop the first subterranean wellbore, and the second field equipment can be used to develop the second subterranean wellbore.

Abstract: A system for developing multiple subterranean wellbores in a land-based field can include a first operational platform disposed over a first entry point of a first subterranean wellbore at a first time. The system can also include a second operational platform disposed over a second entry point of a second subterranean wellbore at the first time, where the first entry point and the second entry point are located proximate to each other. The system can further include first field equipment disposed on the first operational platform. The system can also include a second field equipment disposed on the second operational platform. The first field equipment can be used to develop the first subterranean wellbore, and the second field equipment can be used to develop the second subterranean wellbore.

Abstract: A polymer pipeline pig is provided for cleaning the interior of a pipeline capable of completely dissolving in a fluid including oil, water and/or gas over a time period of from 4 days to 24 days and over a temperature range of from 100° F. to 250° F. The polymer is selected from polylactic acid, polyglycolic acid, poly(lactic-co-glycolic acid) and combinations thereof The pipeline pig can be launched into the interior of the pipeline, allowed to move through the interior of the pipeline in a fluid including oil and water, and dissolved over a time period of from 4 days to 24 days and over a temperature range of from 100° F. to 250° F. Thus, no pig receiving facility is needed.