Abstract: Global mobile communication event identifiers (IDs) improve security by enabling early detection of cybersecurity events in cellular networks. The event IDs are each unique to a category of mobile communication events and consistent across the network functions (NF), even from different vendors. NFs assign event IDs to mobile communication events, which are reported to a cybersecurity operations center. The cybersecurity operations center has visibility into network-wide events and is thus able to match occurrences of event IDs with categorized attacks, when an attack is occurring. This enables rapid, intelligent selection of a defensive response.

Abstract: Methods and systems for detecting false base stations are provided. A computing device transmits a request for a verification message to a base station. An encrypted verification message comprising a base station identifier and a signature encrypted using an encryption key associated with the base station is received by the computing device. The computing device decrypts the signature included in the encrypted verification message utilizing a decryption key associated with the computer system. Based on the decrypted signature, the computing device determines that the encryption key does not correspond to the decryption key. Based on determining that the encryption key does not correspond to the decryption key, the computing device stores the base station identifier in a data store in association with a false base station indicator.

Abstract: The disclosed technology provides a system and method for provisioning network resource slices to wireless network operators where the network slices are supported by a single modular cell (e.g., a small cell) shared between, e.g., multiple different wireless network operators.

Abstract: The disclosed technology provides a system and method for provisioning network resource slices to wireless network operators where the network slices are supported by a single modular cell (e.g., a small cell) shared between, e.g., multiple different wireless network operators.

Abstract: Integrity protection is used to assist in ensuring the secure transmission of wireless data within a cellular network. Instead of performing integrity protection on each packet data unit (PDU) transmitted/received within a PDU session, integrity protection is performed on a portion of PDUs transmitted within a cellular network. For instance, partial integrity protection may be performed on at least one predetermined PDU (e.g., the first, second, fourth, . . . ) that is transmitted via a Physical Downlink Shared Channel (PDSCH)/Physical Uplink Shared Channel (PUSCH) during a communication session. By performing partial integrity protection, user data may be transmitted more quickly throughout the cellular network, compared to performing full integrity protection, while still providing integrity protection.

Abstract: A multi-cable transit may include a plurality of modules disposed within the frame assembly; each of the plurality of modules comprising: an upper housing, a lower housing disposed opposite the upper housing; and a plurality of upper layers and a plurality of lower layers disposed between the upper housing and the lower housing; and a compression wedge unit connected between the frame assembly and the plurality of modules, wherein expansion of the compression wedge unit compresses the plurality of modules within the frame assembly to form a gas-tight seal within the plurality of modules. A single cable transit may include a pair of component halves, each of the pair of component halves comprising: a u-shaped body having a curved outer surface and contoured inner surface; a plurality of interlocking layers; and a compression member configured to axially compress the u-shaped body.

Abstract: Methods and systems for detecting false base stations are provided. A computing device transmits a request for a verification message to a base station. An encrypted verification message comprising a base station identifier and a signature encrypted using an encryption key associated with the base station is received by the computing device. The computing device decrypts the signature included in the encrypted verification message utilizing a decryption key associated with the computer system. Based on the decrypted signature, the computing device determines that the encryption key does not correspond to the decryption key. Based on determining that the encryption key does not correspond to the decryption key, the computing device stores the base station identifier in a data store in association with a false base station indicator.

Abstract: A wireless communication network serves a Network Exposure Function (NEF) slice to User Equipment (UE). An Access and Mobility Management Function (AMF) selects a NEF slice for the UE. A Session Management Function (SMF) selects a NEF address for the NEF slice for the UE. A User Plane Function (UPF) exchanges Application Programming Interface (API) calls and responses between the UE and a NEF based on the NEF address. The NEF exchanges the API messages with the UE over the UPF. The NEF slice may comprise an edge NEF slice that is selected based on the geographic location of the UE and that features a local NEF element that is coupled to a core NEF element.

Abstract: A cable gland and methods for earthing, grounding, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland comprises a gland body, a plurality of extensions, an elastomer seal, a compression member configured to rotate the plurality of extensions towards to the elastomer seal, and an earthing insert mounted in the gland body configured to electrically connect a cable to a neutral and/or grounded conductor. The cable gland is configured to provide an air-tight seal between the exterior of the cable and the elastomer seal through rotation of the plurality of extension upon the elastomer seal. The cable gland may include an o-ring and nut to secure the cable gland to a planar body. The earthing insert comprises a grounding spring in electrical communication with a metallic portion of the cable and a neutral and/or grounded conductor.

Abstract: The disclosed technology provides a system and method for provisioning network resource slices to wireless network operators where the network slices are supported by a single modular cell (e.g., a small cell) shared between, e.g., multiple different wireless network operators.

Abstract: The disclosed technology provides a system and method for provisioning network resource slices to wireless network operators where the network slices are supported by a single modular cell (e.g., a small cell) shared between, e.g., multiple different wireless network operators.

Abstract: Integrity protection is used to assist in ensuring the secure transmission of wireless data within a cellular network. Instead of performing integrity protection on each packet data unit (PDU) transmitted/received within a PDU session, integrity protection is performed on a portion of PDUs transmitted within a cellular network. For instance, partial integrity protection may be performed on at least one predetermined PDU (e.g., the first, second, fourth, . . . ) that is transmitted via a Physical Downlink Shared Channel (PDSCH)/Physical Uplink Shared Channel (PUSCH) during a communication session. By performing partial integrity protection, user data may be transmitted more quickly throughout the cellular network, compared to performing full integrity protection, while still providing integrity protection.

Abstract: A cable gland and methods for earthing, grounding, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland comprises a gland body, a plurality of extensions, an elastomer seal, a compression member configured to rotate the plurality of extensions towards to the elastomer seal, and an earthing insert mounted in the gland body configured to electrically connect a cable to a neutral and/or grounded conductor. The cable gland is configured to provide an air-tight seal between the exterior of the cable and the elastomer seal through rotation of the plurality of extension upon the elastomer seal. The cable gland may include an o-ring and nut to secure the cable gland to a planar body. The earthing insert comprises a grounding spring in electrical communication with a metallic portion of the cable and a neutral and/or grounded conductor.

Abstract: A cable gland and methods for earthing, grounding, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland comprises a gland body, a plurality of extensions, an elastomer seal, a compression member configured to rotate the plurality of extensions towards to the elastomer seal, and an earthing insert mounted in the gland body configured to electrically connect a cable to a neutral and/or grounded conductor. The cable gland is configured to provide an air-tight seal between the exterior of the cable and the elastomer seal through rotation of the plurality of extension upon the elastomer seal. The cable gland may include an o-ring and nut to secure the cable gland to a planar body. The earthing insert comprises a grounding spring in electrical communication with a metallic portion of the cable and a neutral and/or grounded conductor.

Abstract: The disclosed technology provides a system and method for provisioning network resource slices to wireless network operators where the network slices are supported by a single modular cell (e.g., a small cell) shared between, e.g., multiple different wireless network operators.

Abstract: A cable gland and methods for earthing, grounding, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland comprises a gland body, a plurality of extensions, an elastomer seal, a compression member configured to rotate the plurality of extensions towards to the elastomer seal, and an earthing insert mounted in the gland body configured to electrically connect a cable to a neutral and/or grounded conductor. The cable gland is configured to provide an air-tight seal between the exterior of the cable and the elastomer seal through rotation of the plurality of extension upon the elastomer seal. The cable gland may include an o-ring and nut to secure the cable gland to a planar body. The earthing insert comprises a grounding spring in electrical communication with a metallic portion of the cable and a neutral and/or grounded conductor.

Abstract: A cable gland and method for earthing, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland includes compressible fingers with the ability to compress or expand about a cable inserted in and through the cable gland, and an adjustable earthing coil arranged internally inside a part of the cable gland that secures around a cable inserted in the cable gland. When fully coiled, the adjustable earthing coil is relaxed and as the adjustable earthing coil is expanded it generates a restoring force. An earthing strap attached to the adjustable earthing coil in the cable gland, provides grounding capabilities to the cable gland.

Abstract: A discharge device includes a plurality of material conveying components, an adjustable shear ledge, and an adjustable shroud to convey materials from a container of a material spreader out onto an open area. The adjustable shear ledge includes at least one longitudinal mounting member such that the adjustable shear ledge may be translated towards or away from the plurality of material conveying components to maintain a predetermined gap distance. The adjustable shroud may also be pivotably connected to the adjustable shear ledge such that the adjustable shroud can be pivoted towards or away from the plurality of material conveying components. The adjustable shear ledge and the adjustable shroud may be moved accordingly to maintain a preferred gap distance and to maintain concentricity with a swing of the material conveying components in order to reduce wear on components and promote spread performance of the material spreader.

Abstract: A cable gland and method for earthing, bonding, and electromagnetic capability with armored, metal-clad, and metallic-sheathed cable types. The cable gland includes compressible fingers with the ability to compress or expand about a cable inserted in and through the cable gland, and an adjustable earthing coil arranged internally inside a part of the cable gland that secures around a cable inserted in the cable gland. When fully coiled, the adjustable earthing coil is relaxed and as the adjustable earthing coil is expanded it generates a restoring force. An earthing strap attached to the adjustable earthing coil in the cable gland, provides grounding capabilities to the cable gland.

Abstract: An assembly including a host device and an add-on module, in which the host device and the add-on module include features to provide a rugged electro-mechanical interface or connection between the host device and the add-on module. The host device includes a body that has an open or non-enclosed docking bay on a side, and the module is placed into the docking bay such that a top side of its body mates with the inner surfaces and features of the docking bay. The interface is rugged so that the assembly is useful in the field, and the interface provides a secure attachment that can withstand dropping. A hook is provided on the top side of the body of the module, and the hook feature's shape, when combined with the location of fasteners on the module body that mate with threaded holes in the docking bay, is designed to withstand dropping.