Prysmian S.p.a.

Nathan Paddick

Ian Dewi Lang

Martin Vincent Davies

Simon James Frampton

Kris Jonathan Roberts

Ralph Sutehall

Arnaud Le Dissez

Paul John Roberts

Mark Richard Mason

Andrew Barnes

Luigi Russo

George Stephen Lucas

Phil Wedgbrow

Ben Croucher

Kris Roberts

Martin Davies

Andrew Paul Barnes

A multi-port gland for an optical closure, the multi-port gland comprising a gland body configured to be attached to an optical closure, the gland body having gland channels extending along an insertion direction, each gland channel being configured for passage of an optical cable; one or more adapters, each adapter being configured to retain an optical cable and being configured to be inserted at least partially into a gland channel, each adapter comprising a seal body configured to seal the respective gland channel and to retain the optical cable passing through the gland channel, a seal closing element configured to cooperate with the seal body for sealing the gland channel and for retaining the optical cable passing through the gland channel.

Multi-port gland for an optical closure

A fiber routing insert for an optical junction or distribution box, having: a first floor; first guide elements extending, along a spacing direction transversal to the first floor, from the first floor to first ceiling portions, the first guide elements defining a first path on the first floor configured to receive optical fibers, the first path defining a figure-eight fiber locking path; a second floor arranged at a raised position relative to the first floor and spaced apart from the first floor along the spacing direction, the second floor having a splicing area for splicing the optical fibers on the second floor; second guide elements arranged on the second floor, the second guide elements defining a second path on the second floor configured to receive optical fibers, a connecting element configured to guide optical fibers from the first path to the second path, the first ceiling portions define the second floor.

Fiber routing insert and optical junction or distribution box

The present disclosure relates to a cable reel comprising: a tubular main body extending along a longitudinal axis (L), comprising a plurality of tubular sections successively arranged side by side along the longitudinal axis (L) and releasably interconnected one to another; a first flange positioned at a first end of the main body, releasably connected to a first tubular section of the plurality of tubular sections; a second flange positioned at a second end of the main body, releasably connected to a last tubular section of the plurality of tubular sections, wherein each tubular section comprises at least two arcuate sections releasably interconnected in circumferential direction.

Cable reel

A hybrid optical power distribution box comprises a wall and one or more apertures in the wall, each aperture having a receiving area, one or more optical adapters for optical connectors, the optical adapters being attached to the hybrid optical power distribution box, each optical adapter extending along an optical direction between a first optical portion configured to be connected to an optical connector and a second optical portion inside the hybrid optical power distribution box, each second optical portion having an optical cross-sectional area configured to be inserted inside an aperture; one or more power adapters for electrical power connectors, the power adapters being attached to the hybrid optical power distribution box, each power adapter extending along a power direction between a first power portion configured to be connected to a power connector and a second power portion inside the hybrid optical power distribution box, each second power portion having a power cross-sectional area configured to be inserted inside an aperture. The optical cross-sectional area of the optical adapters matches with the power cross-sectional area of the power adapters and the receiving area of the apertures is configured to match with the optical cross-sectional area of the optical adapters and with the power cross-sectional area of the power adapters.

Hybrid optical power distribution box

A splice tray for optical fiber splices comprising: a base having a splice area for retaining optical fiber splices and a routing area for passage of optical fibers from and towards the splice area; splice holders arranged on the splice area, each splice holder having holding members configured to hold optical fiber splices; retaining arrangements arranged on the base and configured to retain the splice holders; each retaining arrangement comprises sliding guides projecting from the base and configured to receive and retain one or more splice holders; and each splice holder is slidable relative to the sliding guides along a sliding direction transversal to the base between a retracted position, in which the splice holder is proximate to the base and an extracted position in which the splice holder is spaced apart from the base along the sliding direction.

Splice tray for optical fiber splices and an optical termination box with said splice tray

A cable gland for securing a cable to a box comprises a tightening element configured to surround the cable, the tightening element having at least two connecting ends mutually approachable to tighten the tightening element on the cable, and a gland body extending along an axial direction between a first end and a second end, the gland body defining a passing through channel extending along the axial direction between the first end and the second end and configured to receive the cable passing through the first and second ends, the gland body surrounding at least partially the tightening element. The cable gland comprises a first locking arrangement configured to lock along the axial direction the gland body relative to the tightening element.

Cable gland

A gripping device for retaining a cable includes a base, two opposed gripping arms projecting from the base towards respective end portions along an insertion direction and mutually spaced apart along a transversal direction perpendicular to the insertion direction. The gripping arms include retaining portions configured to receive the cable therebetween and insertion portions configured to allow insertion of the cable towards the retaining portions. The gripping device includes first protrusions projecting from the retaining portions, extending along a first direction angled with respect to the insertion direction and configured to act on the cable to retain the cable between the retaining portions. The gripping device includes second protrusions projecting from the insertion portions and extending along a second direction angled with respect to the insertion direction, where each of the second protrusions being tapered along the insertion direction towards the respective end portion.

Gripping device for retaining a cable

The present invention relates to an optical fibers management system comprising: a supporting frame; a plurality of splice trays pivotably mounted on the supporting frame and rotatable around respective parallel pivot axes between a closed position and an open position; a locking device pivotably mounted on the supporting frame and rotatable around a locking device rotation axis parallel to the pivot axes of the plurality of splice trays between a locking position and a support position, wherein in the locking position the locking device keeps the plurality of trays in the closed position, and in the support position the locking device supports the plurality of splice trays in the open position.

Management system for optical fibers

In one embodiment, an optical cable, which is a flat drop cable, includes a cavity shaped in the form of a stadium in a sectional view of the optical cable. The cable further includes an outer sheath enclosing the cavity, a first strength member, and a first optical fiber element disposed in the cavity. The first optical fiber element includes an optical fiber and has an oscillating pattern within the cavity on an oscillation plane parallel to a longitudinal plane of the cable. The height of the cavity in the sectional view substantially corresponds to a height of the first optical fiber element.

Flat optical drop cable

A distribution box for cables, the distribution box comprising a plurality of modules arranged in a stacked relationship along a longitudinal direction, the plurality of modules comprising: a base module having an inlet port for receiving one or more cables, a cap module, one or more distribution modules arranged between the base module and the cap module, each distribution module having one or more outlet ports. Attachment members are formed on each module for attaching longitudinally the stacked modules, a retaining element is provided and configured to act on the base module and the cap module to mutually urge the stacked modules along the longitudinal direction.

Modular distribution box for cables

Distribution box for Fiber To The Antenna (FTTA) systems comprising: an upper compartment and a lower compartment separated one from one another, the lower compartment being provided with a sealable entry point for a pre-terminated hybrid cable comprising at least one electric conductor and at least one optical fiber, a plurality of electrical connectors for electrical power conductors and at least one optical connector for optical fiber being arranged within the lower compartment, the upper compartment comprising one or more connection points for hybrid jumper cables.

Electrical power and optical distribution box for fiber to the antenna systems

An optical fiber unit for air-blown installations includes a number of optical conductors, a first layer of resin material, a second layer of resin material radially outer to the first layer of resin material and a sheath of a thermoplastic material, wherein the second layer of resin material has a secant modulus higher than a secant modulus of the first layer of resin material and wherein the sheath of thermoplastic material is over and in close contact with the second layer of resin material.

Growing community of inventors

Milan, Italy

Nathan Paddick