Abstract: An overall network performance effectiveness improvement device that is configured to improve overall network performance based on a network availability level, a network capacity level, and/or a network quality level. The device may be configured to receive network availability data, network capacity data, and network quality data and calculate a network availability level, a network capacity level, and a network quality level based on such network availability data, network capacity data, and network quality data, to determine whether the calculated overall network performance effectiveness level is below a predetermined threshold overall network performance effectiveness level, and to cause a network improvement control event that is configured to improve overall network performance effectiveness of the network if the overall network performance effectiveness level is below a predetermined threshold overall network performance effectiveness level.

Abstract: Methods of design, manufacture and implementations of balanced twisted pair cables with a barrier tape or shield, with tuned attenuation, impedance, and coupling properties. A filler is included within the cable to separate the pairs and provide a support base for the shield, allowing for optimized ground plane uniformity and stability for tuned attenuation, impedance, and coupling properties. The filler orientation, shape, and size provides support for the shield such that a gap is provided between the shield and the twisted pairs with a given minimum size without increasing the maximum cable core size. The length of arms of the filler may be adjusted to fine-tune the size and shape of this gap and control air-dielectric volume and radial contact or spacing between any pair(s) and the shield, tuning electrical performance characteristics caused by non-linear effects of electromagnetic interactions at short ranges between the pairs, shield, filler, or other components.

Abstract: An optical fiber ribbon may be intermittently bonded with a repeating pattern of bond lengths and gap lengths configured to enhance flexibility and robustness of the optical fiber ribbon. The ribbon may include a plurality of optical fibers where a first adjacent two of the optical fibers may be intermittently connected together by the bond portions arranged in a longitudinal pattern which may have a constant bond length or may have a constant distance between bond portions. A second adjacent two of the optical fibers may be intermittently connected together by the bond portions arranged in the longitudinal pattern where a first bond portion of the second adjacent two of the optical fibers may be offset from the first bond portion of the first adjacent two of the optical fibers in the longitudinal direction by a first offset length (O1).

Abstract: Multi-conductor ribbon structures may be structurally configured to reduce cable installation time. Such ribbon structures may include an adjacent conductor portion and a bonding portion that may be structurally configured to surround at least a conductor portion of the adjacent conductor portion. The adjacent conductor portion may be partially or wholly surrounded by a coating portion having an outer surface portion. The bonding portion may form a separation portion between the outer surface of each of the adjacent conductors. The separation portion may include a reduced amount of the bonding material adjacent to a first portion of the adjacent conductor portion relative to an amount of the bonding material portion adjacent a second portion of the adjacent conductor portion so as to provide a preferential separation region between the adjacent conductor portion at the first portion of the adjacent conductor portion.

Abstract: A fiber optic furcation assembly can include a fan-out structure. The fan out structure can include a conduit, and the conduit can extend from a first face of the fan-out structure to an opposing second face of the fan-out structure. The fiber optic furcation assembly can also include a furcation tube. The furcation tube can be positioned within the conduit, and the furcation tube can extend to a terminal end beyond the second face of the fan-out structure. The fiber optic furcation assembly can also include a fiber pull. The fiber pull can be positioned within the furcation tube, and the fiber pull can protrude in a first portion beyond the first face of the fan-out structure and the fiber pull can protrude in a second portion beyond the terminal end of the furcation tube, and the fiber optic furcation assembly can also include an attachment structure. The attachment structure can be fixed to the first portion of the fiber pull, and the attachment structure can receive and couple with an optical fiber.

Abstract: The present disclosure describes apparatuses and methods for separating and installing optical fibers into furcation tubing. A fiber optic furcation assembly can include a fan-out structure. The fan out structure can include a conduit, and the conduit can extend from a first face of the fan-out structure to an opposing second face of the fan-out structure. The fiber optic furcation assembly can also include a furcation tube. The furcation tube can be positioned within the conduit, and the furcation tube can extend to a terminal end beyond the second face of the fan-out structure. The fiber optic furcation assembly can also include a fiber pull. The fiber pull can be positioned within the furcation tube, and the fiber pull can protrude in a first portion beyond the first face of the fan-out structure and the fiber pull can protrude in a second portion beyond the terminal end of the furcation tube, and the fiber optic furcation assembly can also include an attachment structure.

Abstract: The present disclosure describes methods of manufacture and implementations of hybrid separators for data cables having conductive and non-conductive or metallic and non-metallic portions, and data cables including such hybrid separators. A hybrid separator comprising one or more conductive portions and one or more non-conductive portions may be positioned within a data cable between adjacent pairs of twisted insulated and shielded or unshielded conductors so as to provide physical and electrical separation of the conductors. The position and extent (laterally and longitudinally) of each conductive portion and each non-conductive portion may be selected for optimum performance of the data cable, including attenuation or rejection of cross talk, reduction of return loss, increase of stability, and control of impedance.

Abstract: Systems and methods of the disclosure can implement intrusion radiation protection (IRP) to prevent malicious IP traffic in a secure network. The IRP system can receive an IP packet, determine that a protocol of the IP packet matches a predetermined policy of a plurality of predetermined policies, classify the IP packet based on the predetermined policy and a size of the IP packet, inspect a payload of the IP packet responsive to the classification to determine features of the IP packet, determine that one of the features of the IP packet is improper based on the classification, and flag the IP packet as suspect based on the determination. The IRP system can log and/or drop the flagged IP packet. The IRP system can additionally replace a payload of the IP packet with a second payload, and transmit the IP packet with the second payload to its destination.

Abstract: An armored cable may include a cable core including at least one transmission element and a corrugated armor configured to surround the cable core. The corrugated armor may be configured to include raised portions and recessed portions along a length of the cable, the raised portions may be configured to be separated from one another by exterior grooves, and the recessed portions may be configured to be separated from one another by interior grooves. One of the raised portions may be connected to one of the recessed portions by a radial wall that may be configured to provide the corrugated armor with enhanced crush resistance.

Abstract: The present disclosure describes methods of manufacture and implementations of hybrid separators for data cables having conductive and non-conductive or metallic and non-metallic portions, and data cables including such hybrid separators. A hybrid separator comprising one or more conductive portions and one or more non-conductive portions may be positioned within a data cable between adjacent pairs of twisted insulated and shielded or unshielded conductors so as to provide physical and electrical separation of the conductors. The position and extent (laterally and longitudinally) of each conductive portion and each non-conductive portion may be selected for optimum performance of the data cable, including attenuation or rejection of cross talk, reduction of return loss, increase of stability, and control of impedance.

Abstract: The present disclosure describes apparatuses and methods for separating and installing optical fibers into furcation tubing. A fiber optic furcation assembly can include a fan-out structure. The fan out structure can include a conduit, and the conduit can extend from a first face of the fan-out structure to an opposing second face of the fan-out structure. The fiber optic furcation assembly can also include a furcation tube. The furcation tube can be positioned within the conduit, and the furcation tube can extend to a terminal end beyond the second face of the fan-out structure. The fiber optic furcation assembly can also include a fiber pull. The fiber pull can be positioned within the furcation tube, and the fiber pull can protrude in a first portion beyond the first face of the fan-out structure and the fiber pull can protrude in a second portion beyond the terminal end of the furcation tube, and the fiber optic furcation assembly can also include an attachment structure.

Abstract: The present disclosure describes apparatuses and methods for separating and installing optical fibers into furcation tubing. A modular fiber optic furcation assembly can include one or more furcation bodies, each comprising a plurality of parallel conduits oriented in a single plane and extending from a first face of the furcation body to an opposing second face of the furcation body; and an attachment mechanism to removably attach the furcation body to at least one additional furcation body on a face orthogonal to each of the first face and second face of the fan-out structure.

Abstract: The present disclosure describes methods of manufacture and implementations of hybrid separators for data cables having conductive and non-conductive or metallic and non-metallic portions, and data cables including such hybrid separators. A hybrid separator comprising one or more conductive portions and one or more non-conductive portions may be positioned within a data cable between adjacent pairs of twisted insulated and shielded or unshielded conductors so as to provide physical and electrical separation of the conductors. The position and extent (laterally and longitudinally) of each conductive portion and each non-conductive portion may be selected for optimum performance of the data cable, including attenuation or rejection of cross talk, reduction of return loss, increase of stability, and control of impedance.

Abstract: The present disclosure is directed generally to systems and methods for dynamically selecting a retransmission rate for communication between two devices. The retransmission rate may be selected after a transmission has failed between the devices. In some embodiments, the retransmission rate may be selected based on relative velocity of the devices. In some embodiments, the retransmission rate may be selected based on transmission channel characteristics. The retransmission rate may be selected such that the retransmission will be less than an allowable transmission rate based on a distance between the two devices.

Abstract: The present disclosure describes methods of manufacture and implementations of cable storage and dispensing systems combining the advantages of reel-based systems and box-based systems. The present system may be manufactured entirely out of corrugated cardboard or similar materials, reducing expense and weight compared to systems with wood, plastic, or metal reels or flanges, and adding recyclability in a single paper-based waste stream. The system may dispense cable in the same manner as reel-based systems, reducing tangling and aiding installation and deployment compared to box-based systems that do not utilize reels or spools. The system does not require the use of reel stands or other external components, and may be light and portable.

Abstract: The present disclosure describes improved splices for joining ladder rack sections that provide a conductive ground connection, without requiring removal of paint, drilling additional holes, or installation of ground straps between sections. The splices also provide a solid physical connection between ladder rack sections, ensuring safety and stability of the rack system.

Abstract: The present disclosure describes methods of manufacture and implementations of hybrid separators for data cables having conductive and non-conductive or metallic and non-metallic portions, and data cables including such hybrid separators. A hybrid separator comprising one or more conductive portions and one or more non-conductive portions may be positioned within a data cable between adjacent pairs of twisted insulated and shielded or unshielded conductors so as to provide physical and electrical separation of the conductors.

Abstract: Two electromagnetic interference (EMI) controlling tape application methodologies for unshielded twisted pair (UTP) cable include Fixed Tape Control (FTC) and Oscillating Tape Control (OTC). In FTC, tape application angle and edge placement are controlled to maintain position of the tape edges over a base of nonconductive filler in the cable. In OTC, the tape application angle is continuously varied, resulting in crossing of the tape edges over all of the pairs of conductors with varying periodicity. In both implementations, the filler allows a cylindrical shape.

Abstract: The present disclosure is directed generally to systems and methods for dynamically selecting a retransmission rate for communication between two devices. The retransmission rate may be selected after a transmission has failed between the devices. In some embodiments, the retransmission rate may be selected based on relative velocity of the devices. In some embodiments, the retransmission rate may be selected based on transmission channel characteristics. The retransmission rate may be selected such that the retransmission will be less than an allowable transmission rate based on a distance between the two devices.

Abstract: One embodiment relates to a method for producing cable. The method includes applying an insulative coating to each of a plurality of conductors to form a plurality of insulated conductors. The method further includes taking up the plurality of insulated conductors in a twisting system to twist the plurality of insulated conductors together and apply a first portion of a desired twist to the plurality of insulated conductors. The method further includes paying off the plurality of insulated conductors from the twisting system to further twist the plurality of insulated conductors together and apply a second portion of a desired twist to the plurality of insulated conductors to form a twisted plurality of insulated conductors.