Abstract: A weatherproofed interconnection junction includes: a first cable having a first connector at one end; a second connector; a sealing cylinder with an internal cavity, wherein the first connector and second connector are joined and reside within the cavity; and an elastomeric sealing boot having a cable section and a connector section. The first cable is conformably received in the cable section and the sealing cylinder is conformably received in the connector section.

Abstract: A weather resistant connector system includes a connector housing having a first open end, a second open end and a first interior space defined within. A boot has a first open end, a second open end and a second interior space defined within. The second open end of the boot is attached to the first open end of the connector housing. At least one engagement element is formed on the connector housing for engaging with a complimentary structure proximate a port. In one aspect, the boot is flexible and bi-stable, having a first at-rest shape and a second at-rest shape, with the first at-rest shape having the first open end of the connector housing located closer to the first open end of the boot, as compared to the second at-rest shape. In another aspect, the boot is flexible and has a first at-rest shape and the boot can be moved to a second, unstable shape, when a manual force is applied thereto.

Abstract: A connector for a plurality of coaxial cables includes: a conductive common base with a contact surface; a plurality of conductive contact pads embedded in the common base, each of the plurality of contact pads having a contact surface; and a plurality of dielectric pads embedded in the common base, each of the dielectric pads surrounding a respective contact pad to isolate the respective contact pad from the common base.

Abstract: A method for manufacturing an electrical cable includes dividing a tube into a plurality of sectors by passage across a sectoring device, gathering the sectors into a stack by passage of the sectors through a gathering device, and surrounding the stack with an insulating layer. Additional strip features may be applied by application of one or more strip conditioners. Alternatively, strips may be supplied on individual reels for gathering or provided in a multi-end reel already stacked. Where a multi-end reel is provided, length differentials within the stack as it is unwound may be compensated for by application of a stretcher.

Abstract: A weather resistant connector system includes a connector housing having a first open end, a second open end and a first interior space defined within. A boot has a first open end, a second open end and a second interior space defined within. The second open end of the boot is attached to the first open end of the connector housing. At least one engagement element is formed on the connector housing for engaging with a complimentary structure proximate a port. In one aspect, the boot is flexible and bi-stable, having a first at-rest shape and a second at-rest shape, with the first at-rest shape having the first open end of the connector housing located closer to the first open end of the boot, as compared to the second at-rest shape. In another aspect, the boot is flexible and has a first at-rest shape and the boot can be moved to a second, unstable shape, when a manual force is applied thereto.

Abstract: An assembly for protecting spliced optical fibers includes: a fiber optic cable comprising at least one optical fiber and a surrounding jacket; at least one elongate tubular member housing the optical fiber, wherein a gap exists between the elongate tubular member and the jacket such that the optical fiber has an exposed region; and a premold block formed of an ultra-low pressure material, the premold block encasing the exposed region of the optical fiber.

Abstract: A stripline RF transmission cable has a generally planar inner conductor surrounded by a dielectric layer that is surrounded by a corrugated outer conductor. The corrugations may be, for example, annular or helical. The outer conductor has a top section and a bottom section which transition to a pair of edge sections that interconnect the top section with the bottom section. The top section, bottom section and the inner conductor may be provided with generally equal widths. A spacing between the inner conductor and the dielectric layer may be reduced proximate a mid section of the inner conductor. The inner conductor may also be corrugated generally normal to a longitudinal extend of the inner conductor.

Abstract: A coaxial connector junction includes first and second coaxial connectors. The first coaxial connector engages the second coaxial connector, the post of the first central conductor extension being inserted into the cavity of the second central conductor extension such that a capacitive element is created between the first and second central conductor extensions by a gap between the first central conductor extension and the second central conductor extension.

Abstract: A cable reduces loop inductance by changing the cross-sectional shape of the conductive elements of power supply and return conductors to something other than the traditional circular cross sectional shape, e.g., to a thin generally rectangular shape. The power supply and return conductors are also controlled in placement along the length of the cable, so that mutual inductance is maximized within a given power supply circuit, and minimized between the given power supply circuit and other power supply circuits within the cable. The return power supply conductor may optionally be sized for multiple power supply circuits, which may further reduce loop inductance and reduce crosstalk noise between different power supply circuits within a common cable. The power supply and return conductors may be part of a hybrid cable used to power and communicate with plural remote radio units proximate a top of a tower.

Abstract: A method for manufacturing an electrical cable includes dividing a tube into a plurality of sectors by passage across a sectoring device, gathering the sectors into a stack by passage of the sectors through a gathering device, and surrounding the stack with an insulating layer. Additional strip features may be applied by application of one or more strip conditioners. Alternatively, strips may be supplied on individual reels for gathering or provided in a multi-end reel already stacked. Where a multi-end reel is provided, length differentials within the stack as it is unwound may be compensated for by application of a stretcher.

Abstract: A capacitivly coupled flat conductor connector provided with a male connector body and a female connector body. An alignment insert is coupled to the male connector body, the alignment insert dimensioned to support a predefined length of an inner conductor. An alignment receptacle coupled to the female connector body, the alignment receptacle dimensioned to receive a connector end of the alignment insert to seat an overlapping portion of an inner conductor and an inner conductor trace parallel with one another against opposite sides of a spacer.

Abstract: A capacitively coupled flat conductor connector is provided with a male connector body and a female connector body. An alignment insert is coupled to the male connector body, the alignment insert dimensioned to support a predefined length of an inner conductor. An alignment receptacle is coupled to the female connector body, the alignment receptacle dimensioned to receive a connector end of the alignment insert to seat an overlapping portion of an inner conductor and an inner conductor trace parallel with one another against opposite sides of a dielectric spacer. An outer conductor dielectric spacer isolates the contacting elements of the outer conductor signal path between the male and female connectors.

Abstract: A fine arrestor having a body with a bore there through, an inner conductor within the bore, an inner conductor capacitor within the bore coupled between a surge portion of the inner conductor and a protected portion of the inner conductor, and an inner conductor inductor within the bore coupled electrically in parallel with the inner conductor capacitor. A first shorting portion coupled between the surge portion of the inner conductor and the body and a second shorting portion coupled between the protected portion of the inner conductor and the body, for conducting a surge to ground. Also, other coaxial in-line assemblies may be formed incorporating the inner conductor cavity for isolation of enclosed electrical components.

Abstract: An electrical cable has a plurality of generally rectangular cross-section conductors superposed in a stack, the stack surrounded by a polymer jacket. The stack may be provided with a lubrication layer provided between at least two of the conductors. Conductors of the stack may have a thickness that is greater proximate the middle of the stack than at the top and bottom of the stack and/or a width that is less at the top and the bottom than at the middle. Further stacks may also be provided parallel and coplanar with the first stack, also surrounded by the polymer jacket.

Abstract: A stripline RF transmission cable has a generally planar inner conductor surrounded by a dielectric layer that is surrounded by a corrugated outer conductor. The corrugations may be, for example, annular or helical. The outer conductor has a top section and a bottom section which transition to a pair of edge sections that interconnect the top section with the bottom section. The top section, bottom section and the inner conductor may be provided with generally equal widths. A spacing between the inner conductor and the dielectric layer may be reduced proximate a mid section of the inner conductor. The inner conductor may also be corrugated generally normal to a longitudinal extend of the inner conductor.

Abstract: A hybrid stripline RF transmission cable has a generally flat inner conductor surrounded by a dielectric layer that is surrounded by an outer conductor. Additional conductors may be applied within the dielectric layer and/or within a jacket surrounding the outer conductor. The additional conductors may be, for example, power, data and/or optical conductors.

Abstract: A stripline RF transmission cable has a flat inner conductor surrounded by a dielectric layer that is surrounded by an outer conductor. The outer conductor has a top section and a bottom section which transition to a pair of edge sections that interconnect the top section with the bottom section. The top section, bottom section and the inner conductor may be provided with generally equal widths. An average dielectric constant of the dielectric layer may be lower between the inner conductor edges and the edge sections than between a mid section of the inner conductor and the top and the bottom sections and/or spacing between the inner conductor and the dielectric layer may be reduced proximate a mid section of the inner conductor.

Abstract: A thermally conductive stripline RF transmission cable has a flat inner conductor surrounded by a dielectric layer that is surrounded by an outer conductor. The dielectric layer may include a base polymer and a thermally conductive material to increase a thermal conductivity of the cable. A thermal conductivity of the dielectric layer may be increased between a midsection of the inner conductor and the outer conductor. A jacket may surround the outer conductor, the jacket including a base polymer and a thermally conductive material. Additional conductors may be applied within the dielectric layer and/or in the jacket, proximate the outer conductor.

Abstract: A stripline RF transmission cable has a flat inner conductor surrounded by a dielectric layer that is surrounded by an outer conductor. The outer conductor has a flat top section and a flat bottom section which transition to a pair of edge sections that interconnect the top section with the bottom section. The top section, bottom section and the inner conductor may be provided with generally equal widths.

Abstract: A stripline RF transmission cable has a plurality of generally planar inner conductors surrounded by a dielectric layer that is surrounded by an outer conductor. The inner conductors may be aligned coplanar, inner conductor edge to inner conductor edge, separated by the dielectric layer. Alternatively, the inner conductors may be provided in a vertical stack. A shield element may be applied between the inner conductors. The shield element may be electrically coupled to the outer conductor to entirely isolate the inner conductors from one another.