Abstract: A spoolable array of sensors may be deployed within a wellbore and external a tubular string for measuring properties of a fluid in the central flow passage of the tubular string. A flow port may be made in the tubular string passing from the central flow passage to the external surface. Sensors of the spoolable array of sensors may be covered with a shroud and placed proximate the flow port, or such sensors may be isolated in a zone with packers along with the flow port. The spoolable array of sensors may additionally obtain pressure data to calculate a flow rate from a production zone. The spoolable array of sensors may also be employed in a non-flowing wellbore for monitoring nearby wellbores.

Abstract: The disclosure is directed to a well system environment communication system comprising of an acoustic communicator capable of communicating encoded data with a first wireless transceiver through a fluid medium and the first wireless transceiver capable of communicating encoded data with a second transceiver through a non-fluid medium. In one example, an acoustic communicator is communicatively coupled with a downhole tool allowing the downhole tool to communicate indirectly with a well system controller. In another aspect of the disclosure, a method is described wherein an acoustic communicator located in a wellbore can encode data from a downhole tool and communicate the data through a fluid medium to a first wireless transceiver and the first wireless transceiver can communicate with a second transceiver through a non-fluid medium.

Abstract: A system, method, and power control device for powering electronics located in a wellbore intersecting a subterranean earth formation. The system comprises a battery, a turbine generator, an electronic device, and a processor. The battery is locatable in the wellbore and the turbine generator is locatable in the wellbore so as to be in fluid communication with a flow path in the wellbore. The electronic device is locatable in the wellbore and electrically coupled to the battery and the turbine generator. The processor determines if a power condition is satisfied to allow the turbine generator to power the electronic device. The method comprises powering an electronic device located in the wellbore using a battery and opening a closed flow path in communication with a turbine generator. The method also comprises powering the electronic device using the turbine generator if a power condition is satisfied.

Abstract: A pressure actuated inflow control device that includes: a housing having a wall within which a fluid passageway axially extends; a collapsible apparatus coupled to the housing and configured to change from an extended to a retracted configuration when subjected to a predetermined pressure; and an axially extending plug at least partially disposed within the fluid passageway and removable from the fluid passageway; wherein, when the collapsible apparatus is in the extended configuration, the plug is disposed within the fluid passageway at a first position relative to the housing to restrict fluid flow through the fluid passageway; and wherein, when the collapsible apparatus changes to the retracted configuration, the plug is either: moved to a second position relative to the housing to allow fluid flow through the fluid passageway; or capable of moving from the first position to allow fluid flow through the fluid passageway.

Abstract: A completion system and a method for powering a downhole component of a wellbore are provided. In one example, in the completion system comprises at least three different types of power sources for powering a downhole component in a wellbore and a power distribution circuit including a power distribution node and a control circuit, wherein the control circuit is configured to select at least one power source of the at least three different types of power sources to connect to the power distribution node based on a selection priority of the power sources, and the power distribution node is configured to provide power from the at least one power source to the downhole component.

Abstract: A spoolable array of sensors may be deployed within a wellbore and external a tubular string for measuring properties of a fluid in the central flow passage of the tubular string. A flow port may be made in the tubular string passing from the central flow passage to the external surface. Sensors of the spoolable array of sensors may be covered with a shroud and placed proximate the flow port, or such sensors may be isolated in a zone with packers along with the flow port. The spoolable array of sensors may additionally obtain pressure data to calculate a flow rate from a production zone. The spoolable array of sensors may also be employed in a non-flowing wellbore for monitoring nearby wellbores.

Abstract: A sensing system comprises at least one gauge disposed in a wellbore, a sensing link coupled to the at least one gauge, and a debris barrier coupled to the sensing link. The debris barrier comprises a housing coupled to the sensing link, and a barrier element configured to reduce the transport of particulates from the wellbore into the sensing link.

Abstract: Methods and systems for a remote control flow path system in a wellbore. In one embodiment, the system comprises a plurality of transceivers spaced in the wellbore; a telemetry module operable to wirelessly receive control signals from a surface location by way of the plurality of transceivers and to wireless transmit signals to the surface location by way of the plurality of transceivers; a control module comprising a controller, a pump, and a reservoir of hydraulic fluid; a plurality of valves; and a plurality of control lines for the hydraulic fluid, wherein the plurality of control lines are disposed between the pump and the plurality of valves; wherein the control module is operable to hydraulically actuate one or more of the valves to open or closed positions in response to the control signals from the surface location to create one or more flow paths in the wellbore.

Abstract: A first completion system with electrical isolation, electronics, and a first side of a coupler is installed in a borehole drilled in a geological formation. A second completion system is installed in the borehole after installation of the first completion system. The second completion system has a second side of the coupler aligned with the first side of the coupler and an umbilical which carries power from a surface of the geological formation to the second side of the coupler. Power is sent from the second side of the coupler to the first side of the coupler, from the first side of the coupler to a first side of the electrical isolation, and from the first side of the electrical isolation to a second side of the electrical isolation via an isolation barrier. The power at the second side of the electrical isolation is provided to the electronics.

Abstract: A sleeve on a downhole work string or a completion string may be actuated without movement of the work string, by positioning the work string within the completion string such that a sleeve positioned in a recess on a surface the work string or the completion string, in combination with surfaces of the work string and the completion string define a chamber on a side of the sleeve. A fluid may be pumped from a fluid source through a fluid passageway in the work string to the chamber for forcing the sleeve to actuate from an open position to a closed position or vice versa. In some aspects, multiple sleeves may be actuated concurrently via additional fluid passageways that are in fluid communication with one another. In some aspects, multiple sleeves may be actuated independently via additional fluid passageways that are fluidly isolated from one another.

Abstract: A downhole tool may comprise a body comprising an outer wall and a first passage that extends longitudinally in the body, wherein a fluid slurry traverses a flow path in the body of the downhole tool through the first passage. The downhole tool may further comprise a diverter disposed in the body, wherein the diverter comprises at least one channel and the diverter extends from the outside wall of the body into the flow path of the first passage operable to direct the fluid slurry from the first passage to a location outside the downhole tool. A gravel packing system may comprise a packer and a conveyance comprising a downhole tool. The downhole tool may comprise a body comprising an outer wall and a first passage that extends longitudinally in the body and a diverter disposed in the body.

Abstract: Downhole wet connection systems, and methods and apparatuses to provide an electrical connection between two downhole strings. In one embodiment, a wet connection system having a first electrode coupled to a load and deployed in a wellbore. The wet connection system also includes a second electrode deployed along a string deployed in the wellbore and proximate to the first electrode. Further, the first electrode and the second electrode form a wet connection to transmit alternating current from the second electrode to the first electrode.

Abstract: Systems and methods are disclosed for a well tool. The well tool system includes a receiving tool disposed in a wellbore tubular. The receiving tool is configured to transition from an inactive state to an active state in response to a triggering signal. The well tool system further includes a transmitting tool at a surface and proximate to the receiving tool. The transmitting tool is configured to wirelessly transmit the triggering signal to the receiving tool.

Abstract: An assembly for creating a packer can include a downhole tool positionable within a wellbore. The downhole tool can include an outflow control device that includes a substantially circumferential slot, a port in the slot for receiving a sealant from a reservoir, and a flow restriction device that can be positioned between the substantially circumferential slot and an annulus of the wellbore. The flow restriction device can create a pressure difference between the substantially circumferential slot and the annulus of the wellbore.

Abstract: Systems and methods are disclosed for a well tool. The well tool system includes a receiving tool including two ends positioned in a wellbore tubular in a predetermined orientation. The receiving tool is configured to transition from an inactive state to an active state in response to a triggering signal. The well tool system further includes a transmitting tool at a surface and proximate to the receiving tool. The transmitting tool is configured to wirelessly transmit the triggering signal to the receiving tool using inductive coupling based on the predetermined orientation.

Abstract: Certain embodiments are directed to magnetic rheological packer systems that seal an annulus in a downhole wellbore. In one embodiment, the seal is formed from a two-part epoxy and magnetorheological composition. The epoxy and magnetorheological compositions are allowed to be shaped by a magnetic field provided by one or more magnets exerting a magnetic field to place the packer seal.

Abstract: A sleeve on a downhole work string or a completion string may be actuated without movement of the work string, by positioning the work string within the completion string such that a sleeve positioned in a recess on a surface the work string or the completion string, in combination with surfaces of the work string and the completion string define a chamber on a side of the sleeve. A fluid may be pumped from a fluid source through a fluid passageway in the work string to the chamber for forcing the sleeve to actuate from an open position to a closed position or vice versa. In some aspects, multiple sleeves may be actuated concurrently via additional fluid passageways that are in fluid communication with one another. In some aspects, multiple sleeves may be actuated independently via additional fluid passageways that are fluidly isolated from one another.

Abstract: This disclosure may generally relate to subterranean operations and, more particularly, to systems and methods for setting a packer. Specifically, embodiments of the present disclosure may provide real-time verification of setting a packer in order to form a seal within a wellbore. A system for packer setting may comprise a packer, a telemetry module operable to wirelessly receive one or more control signals from a surface location, and a control module coupled to the telemetry module and the packer, wherein the control module is operable to actuate the packer in response to the one or more control signals from the surface location.

Abstract: An apparatus for controlling fluid flow into a well includes an outer tubular member and an inner tubular member. The outer tubular member includes a screen configured to enable fluid flow therethrough between an exterior and an interior of the outer tubular member. The inner tubular member is configured to be positionable within the outer tubular member. The inner tubular member is a remotely activated flow control device configured to control fluid flow between an exterior and an interior of the inner tubular member.

Abstract: A pressure actuated inflow control device that includes: a housing having a wall within which a fluid passageway axially extends; a collapsible apparatus coupled to the housing and configured to change from an extended to a retracted configuration when subjected to a predetermined pressure; and an axially extending plug at least partially disposed within the fluid passageway and removable from the fluid passageway; wherein, when the collapsible apparatus is in the extended configuration, the plug is disposed within the fluid passageway at a first position relative to the housing to restrict fluid flow through the fluid passageway; and wherein, when the collapsible apparatus changes to the retracted configuration, the plug is either: moved to a second position relative to the housing to allow fluid flow through the fluid passageway; or capable of moving from the first position to allow fluid flow through the fluid passageway.