Abstract: This present disclosure increases the interconnect density by using a different technology approach than the industry is currently using (stamping and molding). By using a MEMS-based technology approach, better geometry and impedance control can be carried out to reduce impedance discontinuities and feature size. Additional concepts include low connector insertion force, no contact wiping, and a precise alignment mechanism between the connector contacts and those on the mating substrate.

Abstract: Provided, in at least one aspect, is a displacement plug for us in a wellbore tubular, a method for entering a well system, and a related well system. The displacement plug, in one aspect, includes a plug body for landing in a wellbore tubular, wherein at least a portion of the plug body comprises a metal configured to expand in response to hydrolysis to seal against the wellbore tubular. The displacement plug, in one or more aspects, additionally includes one or more displacement features engaged with the plug body for displacing the plug body downhole.

Abstract: An electrical contact for an electrical connector includes a contact body and a lossy material located on the contact body. An electrical connector includes contacts with a lossy material located on the contact body. A method of applying a lossy material to a contact for an electrical connector includes providing a contact and applying the lossy material to the contact.

Abstract: An electrical contact for an electrical connector includes a contact body and a lossy material located on the contact body. An electrical connector includes contacts with a lossy material located on the contact body. A method of applying a lossy material to a contact for an electrical connector includes providing a contact and applying the lossy material to the contact.

Abstract: This present disclosure increases the interconnect density by using a different technology approach than the industry is currently using (stamping and molding). By using a MEMS-based technology approach, better geometry and impedance control can be carried out to reduce impedance discontinuities and feature size. Additional concepts include low connector insertion force, no contact wiping, and a precise alignment mechanism between the connector contacts and those on the mating substrate.

Abstract: System, device, and method for detecting a passive identification tag and identifying a tag ID for the passive identification tag are provided. The system can include a transmitting system, a passive identification tag, and a receiving system. The transmitting system generates one or more detection signals to interrogate the passive identification tag, where the one or more detection signals includes a first detection signal having a first frequency range. The passive identification tag receives the one or more detection signals, and generates at least a first tag response in response to the first detection signal. The receiving system receives the first tag response, and processes the first tag response to determine a plurality of signal components for the first frequency range, where the plurality of signal components can be used to determine the tag ID.

Abstract: System, device, and method for detecting a passive identification tag and identifying a tag ID for the passive identification tag are provided. The system can include a transmitting system, a passive identification tag, and a receiving system. The transmitting system generates one or more detection signals to interrogate the passive identification tag, where the one or more detection signals includes a first detection signal having a first frequency range. The passive identification tag receives the one or more detection signals, and generates at least a first tag response in response to the first detection signal. The receiving system receives the first tag response, and processes the first tag response to determine a plurality of signal components for the first frequency range, where the plurality of signal components can be used to determine the tag ID.

Abstract: An electrical contact for an electrical connector includes a contact body and a lossy material located on the contact body. An electrical connector includes contacts with a lossy material located on the contact body. A method of applying a lossy material to a contact for an electrical connector includes providing a contact and applying the lossy material to the contact.

Abstract: An electrical contact for an electrical connector includes a contact body and a lossy material located on the contact body. An electrical connector includes contacts with a lossy material located on the contact body. A method of applying a lossy material to a contact for an electrical connector includes providing a contact and applying the lossy material to the contact.

Abstract: An endovascular device monitoring system is provided that determines, based on movement of the endovascular device past a selected reference location, at least one of a movement rate of an endovascular device and position of a distal end of an endovascular device in a body of a patient.

Abstract: A retrofitted door for retrofitting an appliance. The retrofitted door includes a frame having multiple attachment structures and a glass panel system attached to the frame. The glass panel system includes a mounting frame including attachment members that engage corresponding ones of the multiple attachment structures and a glass panel attached to the mounting frame and facing away from the frame and facing away from the cavity when the retrofitted door is at a closed position.

Abstract: System, device, and method for detecting a passive identification tag and identifying a tag ID for the passive identification tag are provided. The system can include a transmitting system, a passive identification tag, and a receiving system. The transmitting system generates one or more detection signals to interrogate the passive identification tag, where the one or more detection signals includes a first detection signal having a first frequency range. The passive identification tag receives the one or more detection signals, and generates at least a first tag response in response to the first detection signal. The receiving system receives the first tag response, and processes the first tag response to determine a plurality of signal components for the first frequency range, where the plurality of signal components can be used to determine the tag ID.

Abstract: Systems, apparatus, and methods for fabricating passive identification tags are provided. A method for fabricating a passive identification tag can include: determining a pattern for a resonant structure of a resonance layer of the passive identification tag, and/or determining a pattern for a dielectric structure of a characteristic layer to be disposed on the resonance layer. The method can further include: generating, based on the pattern for the resonant structure, the resonant structure on a substrate to form the resonance layer. The resonant structure generated by the method can respond to an incoming detection signal by transmitting or reflecting a tag response. The method can further include: generating, based on the pattern for the dielectric structure, the dielectric structure on the resonance layer to form the characteristic layer. The dielectric structure can modify the tag response, so that a modified tag response is transmitted or reflected to a receiver.

Abstract: An interconnection system includes a mating substrate that is configured to be placed in electrical communication with a main board along an insertion direction so as to define a separable interface. The interconnection system is configured to align the mating substrate with the main board along first and second transverse directions that are perpendicular to each other and to the insertion direction.

Abstract: Example embodiments for identifying and displaying configuration item information are presented herein. A system may involve a proxy server application disposed within a managed network that includes configuration items and a server disposed within a remote network management platform managing the managed network. The server may receive a request to view information representative of a particular configuration item from a client device. Based on the request, the server may obtain the information and transmit a representation of a graphical user interface to the client device. The representation may include a health graphic, a relationship graphic, a timeline graphic, and an activity stream, each of which represent pertinent information about the particular configuration item. The representation may also include a tabbed interface that facilitates navigation between attributes corresponding to the particular configuration item and attributes corresponding to other configuration items in the managed network.

Abstract: Certain exemplary embodiments can provide a method, which comprises causing an article to be picked up and delivered via a working drone substantially without human intervention. The working drone is coupled to a support drone via a tether. The working drone is controlled via a wireless communication system that transmits signals from the support drone to the working drone. The wireless communication system constructed to communicate with a box that receives deliveries via the drone.

Abstract: A system for a wellbore can include a tubing string positioned downhole in a wellbore and a porous gravel pack. The porous gravel pack can be positioned in an annulus defined at least in part by a surface of the tubing string. The porous gravel pack can be made up of a plurality of grains. Each grain can include a core surrounded at least in part by a sheath. The core can comprise an expandable material that can expand in response to coming in contact with a fluid. The sheath can surround the core and can be deformable in response to the core expanding in response being exposed to a fluid.

Abstract: A system for a wellbore can include a tubing string positioned downhole in a wellbore and a porous gravel pack. The porous gravel pack can be positioned in an annulus defined at least in part by a surface of the tubing string. The porous gravel pack can be made up of a plurality of grains. Each grain can include a core surrounded at least in part by a sheath. The core can comprise an expandable material that can expand in response to coming in contact with a fluid. The sheath can surround the core and can be deformable in response to the core expanding in response being exposed to a fluid.