Abstract: A method for providing automated supply chain management at one or more locations involves monitoring the one or more locations in order to calculate one or more supply chain metrics, and determining whether at least one of the supply chain metrics has exceeded an alarm level. The method also includes, in response to determining that at least one of the supply chain metrics has exceeded the alarm level, automatically performing a remedial action at a location that was responsible for the alarm. The one or more supply chain metrics are related to one or more of: emergency purchases, canceled purchases, and aged inventory. Each of the one or more supply chain metrics is assigned an individual weighted supply chain metric score out of 100.

Abstract: A system for navigating a downhole environment includes a tube body with a flexible material that is formed as a thin-walled tube and a pump that pumps pressured fluid through the tube body. The tube body has at least a section that extends along a horizontal section of a downhole environment by the flexible material pushing out under the pressured fluid. A method for navigating a downhole environment includes providing a tube body with a flexible material which is formed as a thin-walled tube, pumping a first pressure through the tube body to extend the tube body by the flexible material pushing out at tip, and controlling the flexible material to extend the tube body along a horizontal section of a downhole environment.

Abstract: In an example, simple mail traffic protocol (SMTP) traffic can be extracted from network traffic of a network. The SMTP traffic can be processed using a bot detector employing a machine learning model trained to determine whether the SMTP traffic contains a malicious SMTP session. Alert data can be provided in response to detecting the malicious SMTP session.

Abstract: A blend for lubricating a surface includes a lubricant and a polyepoxide co(ter)polymer additive mixed with the lubricant. The polyepoxide co(ter)polymer additive includes a first block having monomer M1 and a second block having monomer M2. The first monomer M1 includes hexene oxide, HO, or octene oxide, OO, and the second monomer M2 includes propylene oxide, PO.

Abstract: A method of controlling a permeability zone in a reservoir includes introducing a diverter agent comprising a morpholinium based zwitterionic surfactant including a sulfonate terminal moiety, an ammonium-based zwitterionic surfactant, and an activator in a wellbore. Once introduced, the diverter agent contacts a high permeability zone in the reservoir.

Abstract: This disclosure relates to systems for waste gas sequestration in geological formations and methods for of gas sequestration of waste gas in geological formations. The system can include a wellbore, a casing, inner tubing, a water passage, outer tubing comprising a plurality of diffusion membranes, and a formation conduit comprising reactive rock.

Abstract: Systems and techniques are provided for integrating laboratory generated nuclear magnetic resonance (NMR) data and NMR logging data. An example method can include obtaining NMR logging data describing one or more downhole NMR measurements captured during a drilling operation in a borehole; modifying the NMR logging data to be compatible with a temperature correction algorithm, yielding modified NMR logging data, the temperature correction algorithm having been determined based on laboratory generated NMR data; and applying the temperature correction algorithm to the modified NMR logging data, yielding temperature corrected NMR logging data.

Abstract: Described is a transparent polymer-based composite and a method for preparing a transparent polymer-based composite. The transparent polymer-based composite includes an activated polycarbonate and one or more nanoparticles grafted to the activated polycarbonate. The activated carbonate is formed via a transcarbonation reaction of a mixture of a carbonic acid species having terminal ester groups and a bisphenol-A with sodium hydroxide and ortho-dichlorobenzene. The transparent polymer-based composite may be used to replace the glass front-sheet of solar panels for photovoltaic applications.

Abstract: According to embodiments, a method of producing a catalyst composition may include forming a slurry including an initial zeolite material, a surfactant, silica, and metal precursors, wherein the metal precursors contain a nickel-containing compound and a silver-containing compound, extruding the slurry to produce an extrudate, drying and calcining the extrudate to form a dried and calcined extrudate, hydrothermally treating the dried and calcined extrudate to form a hydrothermally-treated extrudate, and drying and calcining the hydrothermally-treated extrudate to produce the catalyst composition, wherein the catalyst composition includes zeolite, one or more oxides of nickel, and one or more oxides of silver.

Abstract: An engineered cementitious composite (ECC) has a tensile strain capacity ranging from 8.6 to 12.5% and includes a cement precursor, unprocessed desert sand, and polymer fibers. The polymer fibers may be ultra-high molecular weight polyethylene fibers, polypropylene fibers, or a combination thereof. A method of preparing an ECC structure includes providing a cementitious precursor mixture including a cement precursor and unprocessed desert sand, introducing water into the cementitious precursor mixture to form a cement slurry, and adding polymer fibers to the cement slurry. The polymer fibers may be ultra-high molecular weight polyethylene fibers, polypropylene fibers, or a combination thereof. Then, the method includes forming a structure with the cement slurry and curing the cement slurry.

Abstract: A diverter agent includes a morpholinium based zwitterionic surfactant having a sulfonate terminal moiety; and an ammonium based zwitterionic surfactant.

Abstract: Separation methods comprising: separating hydrogen sulfide from natural gas liquids (NGL) in a stripping column. Wherein the following are fluidly connected to the stripping column: a first condensate input line, a second condensate input line, a condensate stripper feed line, a feed drum, an overhead gas product line, a bottoms product NGL line, a slip stream NGL line, a reboiler return line, and an external stripping gas line. And feeding, to the stripping column in a stripping gas feed line fluidly connected to the stripping column, a portion of the slip stream NGL line in combination with the external stripping gas line.

Abstract: A method for logging in a well is disclosed. The method includes securing a passive logging while levitating (PLWL) assembly to a bottomhole assembly (BHA) to form a logging assembly and running the logging assembly into a wellbore of the well. The method further includes detecting a deviation in the wellbore, detecting a fluid flow direction around the logging assembly in the wellbore, activating the PLWL assembly based, at least in part, on the deviation in the wellbore and the fluid flow direction, and levitating the logging assembly in a center of the wellbore. The method also includes determining whether the logging assembly has reached a target depth and performing logging in the well while the logging assembly is levitating in the center of the wellbore.

Abstract: A hydrocarbon feed stream is exposed to heat in an absence of oxygen (pyrolysis) to convert the hydrocarbon feed stream into a solids stream and a gas stream. The solids stream includes carbon. The gas stream includes hydrogen. The gas stream is separated into an exhaust gas stream and a first hydrogen stream. The first hydrogen stream includes at least a portion of the hydrogen from the gas stream. The carbon is separated from the solids stream to produce a carbon stream. Electrolysis is performed on a water stream to produce an oxygen stream and a second hydrogen stream. At least a portion of the oxygen of the oxygen stream and at least a portion of the carbon of the carbon stream are combined to generate power and a carbon dioxide stream. At least a portion of the generated power is used to perform the electrolysis on the water stream.

Abstract: A system for detecting and locating sand accumulation in an enclosure and for removing the detected and located sand accumulation, having a sand accumulation locator assembly adapted to detect and locate one or more accumulations of sand in the enclosure; a sand removal mechanism adapted to remove the detected one or more accumulations of sand; and a controller communicatively coupled to the sand accumulation locator assembly and the sand removal mechanism, said controller being adapted to: control the sand accumulation locator assembly to detect and locate the one or more accumulations of sand in the enclosure; and control the sand removal mechanism to remove the one or more detected accumulations of sand based on corresponding one or more locations of accumulated sand detected by the sand accumulation locator assembly.

Abstract: A hydrocarbon feed stream may be processed by a method that may include catalytically cracking a hydrocarbon feed stream in a counter-current reactor to produce a first effluent stream, and processing a portion or all of the first effluent stream by at least one or more separations. The at least one or more separations may form at least a second effluent stream including at least 95 wt. % C4-C6 hydrocarbons, and a third effluent stream including at least 95 wt. % of ethane, propane, or a combination thereof. In some embodiments, the method may further include catalytically cracking a portion or all of the second effluent stream in a second reactor to form a second reactor effluent stream, combining a portion of all of the second reactor effluent stream with the first effluent stream, steam cracking a portion or all of the third effluent stream to form a steam cracked effluent stream, and combining a portion or all of the steam cracked effluent stream with the first effluent.

Abstract: A system and method for operating centrifugal pumps related to net positive suction head (NPSH), including identifying a group of centrifugal pumps and deriving an equation for the group based on manufacturer data of the centrifugal pumps collectively in the group, the equation correlating NPSH required (NPSHr) with flowrate of pumped fluid, wherein the manufacturer data includes NPSHr for each centrifugal pump of the group as a function of the flowrate of the pumped fluid. The technique includes specifying a NPSH margin for NPSH available (NPSHa) above the NPSHr.

Abstract: A method of hydroprocessing a hydrocarbon feed may comprise fractionating a hydrocarbon feed into “n” fractions, wherein “n” is at least 2; hydroprocessing an (n?1)th fraction of the hydrocarbon feed in an (n?1)th hydroprocessing reaction zone of a hydroprocessing unit, thereby producing an (n?1)th effluent The method may further comprise hydroprocessing the nth fraction and the (n?1)th effluent in an nth hydroprocessing reaction zone, thereby producing an nth effluent. The (n?1)th hydroprocessing reaction zone may be upstream of the nth hydroprocessing reaction zone. The (n?1)th fraction may have a greater boiling point range than the nth fraction. Hydrogen and the hydrocarbon feed may be in co-current flow in the hydroprocessing unit.

Abstract: A sulfur storage tank includes a bottom plate, an outer wall, and a cleanout door. The outer wall surrounds and is coupled to the bottom plate. The cleanout door is installed on the outer wall. The cleanout door includes an edge and a drain nozzle. The edge abuts the bottom plate. The drain nozzle is installed on the cleanout door. The drain nozzle defines a centerline offset from the edge. The drain nozzle is configured to gravity drain fluid from the sulfur storage tank.

Abstract: A downhole tool includes a top sub-assembly configured to connect to a downhole conveyance that is operable to run the tool into a wellbore formed from a terranean surface to a subterranean formation; a housing coupled at an uphole end to the top sub-assembly, the housing defining an interior volume; a vacuum positioned in the interior volume and configured to generate a fluid suction; a debris chamber fluidly coupled to the vacuum and positioned in the interior volume; a nozzle coupled at a downhole end of the housing, the nozzle including one or more openings; and a controller communicably coupled to the vacuum and configured to perform operations including activating the vacuum to generate the fluid suction to circulate wellbore debris through the vacuum and into the debris chamber.