Abstract: Examples are disclosed that relate to connector systems, magnetic plug assemblies and methods for mating a magnetic plug assembly with a plurality of receptacles. In one example, a magnetic plug assembly comprises a moveable member comprising an aperture and one or more magnets. A plug tip extends through the aperture, and one or more biasing elements urge the moveable member and the one or more magnets toward a distal end of the plug tip, with the moveable member being moveable relative to the plug tip.

Abstract: Examples are disclosed that relate to connector systems, magnetic plug assemblies and methods for mating a magnetic plug assembly with a plurality of receptacles. In one example, a magnetic plug assembly comprises a moveable member comprising an aperture and one or more magnets. A plug tip extends through the aperture, and one or more biasing elements urge the moveable member and the one or more magnets toward a distal end of the plug tip, with the moveable member being moveable relative to the plug tip.

Abstract: Embodiments described herein are implemented in authentication brokering systems where an authentication broker issues security tokens that represent its authentications of users. Client devices operated by the users store the security tokens and send them to resource providers. The resource providers authenticate and grant access to the users based on validation of the security tokens. Authentication related messages exchanged between the resource providers and the authentication broker are used to exchange authentication risk data that is obtained or derived by the resource providers and the authentication broker. The resource providers obtain authentication risk data directly from the authentication broker and indirectly, via the authentication broker, from each other. As security tokens are used or managed, authentication risk data is shared among the participants in the authentication brokering system.

Abstract: Embodiments described herein are implemented in authentication brokering systems where an authentication broker issues security tokens that represent its authentications of users. Client devices operated by the users store the security tokens and send them to resource providers. The resource providers authenticate and grant access to the users based on validation of the security tokens. Authentication related messages exchanged between the resource providers and the authentication broker are used to exchange authentication risk data that is obtained or derived by the resource providers and the authentication broker. The resource providers obtain authentication risk data directly from the authentication broker and indirectly, via the authentication broker, from each other. As security tokens are used or managed, authentication risk data is shared among the participants in the authentication brokering system.

Abstract: Provided is a plastic-lined interconnect receptacle configured to receive a plug therein. The interconnect receptacle may include a tongue with pins applied thereon for electrical contact with the plug, a metal shell comprising a plurality of inner walls configured to surround at least a portion of the tongue, and a plastic liner positioned inside the metal shell to cover at least three of the inner walls. With such an interconnect receptacle, a color of the plastic liner may be an external color of a computing device in which the interconnect receptacle is installed while maintaining compliance with a UNIVERSAL SERIAL BUS or DISPLAYPORT specification.

Abstract: A magnetic receptacle is described. The receptacle includes an electronic connector having an engagement feature on one or more sides of the electronic connector. The engagement feature is configured to engage a latching feature on a magnetic protrusion. The receptacle includes one or more receptacle magnets positioned adjacent the magnetic receptacle configured to deactivate the latching feature on the magnetic protrusion. In one implementation, a magnetic plug is described. The plug includes a plug tip. The plug includes one or more latching features. The plug includes one or more plug magnets positioned adjacent the plug tip. The one or more plug magnets are configured to cooperate with one or more receptacle magnets to transition the one or more latching features between an engaged state and a disengaged state.

Abstract: The described technology provides a removable apparatus comprising a printed circuit board (PCB) including a plurality of electrical components, a plurality of contact pads configured on at least one of a top surface of a connector plane and a bottom surface of a connector plane to connect the electrical components to one or more contact pins of a receptacle, and one or more ground pads configured to be connected to the one or more contact pins of the receptacle, wherein the one or more ground pads are placed in between the PCB and the plurality of contact pads and connected to a ground terminal of the PCB.

Abstract: A floating connector assembly device is provided. An electronic component is mounted directly or indirectly to a chassis of an electronic device. At least one conductive contact spring is mounted to the electronic component and configured to electrically couple to the electronic component. A printed circuit board having a fixed end and a free end with an electrical contact positioned between the two ends is positioned against the conductive contact spring, the contact spring being biased so that a contacting portion of the contact spring contacts the electrical contact to form an electrical connection. The electrical connection is maintained during relative movement of the conductive contact spring and the electrical contact of the printed circuit board by a bias force of the conductive contact spring.

Abstract: A magnetic receptacle is described. The receptacle includes an electronic connector having an engagement feature on one or more sides of the electronic connector. The engagement feature is configured to engage a latching feature on a magnetic protrusion. The receptacle includes one or more receptacle magnets positioned adjacent the magnetic receptacle configured to deactivate the latching feature on the magnetic protrusion. In one implementation, a magnetic plug is described. The plug includes a plug tip. The plug includes one or more latching features. The plug includes one or more plug magnets positioned adjacent the plug tip. The one or more plug magnets are configured to cooperate with one or more receptacle magnets to transition the one or more latching features between an engaged state and a disengaged state.

Abstract: To address the issue of radio frequency interference with high-speed connectors, a communication port connector for use in a computing device is provided. The communication port connector may include a shell that defines a void that is configured to receive an electrical plug. Port-side electrical contacts in the shell may be configured to make electrical connections with plug-side electrical contacts. One or more double leaf spring fingers may be formed in a side of the shell, with each double leaf spring finger including a first spring finger coupled to a second spring finger. The first spring finger may be configured to contact the electrical plug, and the second spring finger may be configured to contact a chassis of the computing device, thereby creating a ground path to ground the electrical plug to the primary ground plane of the device when it is inserted into the communication port connector.

Abstract: To address the issue of radio frequency interference with high-speed connectors, a communication port connector for use in a computing device is provided. The communication port connector may include a shell that defines a void that is configured to receive an electrical plug. Port-side electrical contacts in the shell may be configured to make electrical connections with plug-side electrical contacts. One or more double leaf spring fingers may be formed in a side of the shell, with each double leaf spring finger including a first spring finger coupled to a second spring finger. The first spring finger may be configured to contact the electrical plug, and the second spring finger may be configured to contact a chassis of the computing device, thereby creating a ground path to ground the electrical plug to the primary ground plane of the device when it is inserted into the communication port connector.

Abstract: A floating connector assembly device is provided. An electronic component is mounted directly or indirectly to a chassis of an electronic device. At least one conductive contact spring is mounted to the electronic component and configured to electrically couple to the electronic component. A printed circuit board having a fixed end and a free end with an electrical contact positioned between the two ends is positioned against the conductive contact spring, the contact spring being biased so that a contacting portion of the contact spring contacts the electrical contact to form an electrical connection. The electrical connection is maintained during relative movement of the conductive contact spring and the electrical contact of the printed circuit board by a bias force of the conductive contact spring.

Abstract: Provided is a plastic-lined interconnect receptacle configured to receive a plug therein. The interconnect receptacle may include a tongue with pins applied thereon for electrical contact with the plug, a metal shell comprising a plurality of inner walls configured to surround at least a portion of the tongue, and a plastic liner positioned inside the metal shell to cover at least three of the inner walls. With such an interconnect receptacle, a color of the plastic liner may be an external color of a computing device in which the interconnect receptacle is installed while maintaining compliance with a UNIVERSAL SERIAL BUS or DISPLAYPORT specification.

Abstract: Embodiments described herein are implemented in authentication brokering systems where an authentication broker issues security tokens that represent its authentications of users. Client devices operated by the users store the security tokens and send them to resource providers. The resource providers authenticate and grant access to the users based on validation of the security tokens. Authentication related messages exchanged between the resource providers and the authentication broker are used to exchange authentication risk data that is obtained or derived by the resource providers and the authentication broker. The resource providers obtain authentication risk data directly from the authentication broker and indirectly, via the authentication broker, from each other. As security tokens are used or managed, authentication risk data is shared among the participants in the authentication brokering system.

Abstract: Techniques and apparatuses for biometric gestures are described herein. In one or more implementations, a computing device includes a biometric sensor, such as a fingerprint touch sensor, that is configured to detect gesture input. When gesture input is received from a user, the biometric sensor detects biometric characteristics (e.g., a fingerprint) of the user and determines a gesture (e.g., a tap, touch and hold, or swipe) based on the gesture input. The user is authenticated if the biometric characteristics correspond to an authorized user of the device. If the user is authenticated, the device transitions to an authenticated user state that is associated with the type of gesture, such as by displaying personal information on a lockscreen of the computing device or opening a quick action center.