A fiber optic stripping apparatus comprising a frame having an axis and a pair of outer arms extending from the axis, each arm pivotal about the axis and a pair of first blades each first blade having a first blade edge, each of the first blades attached to a corresponding frame arm with the first blade edge extending in the direction of the corresponding frame arm. The stripping apparatus includes a pair of second blades each second blade having a second blade edge, each of the second blades attached to a corresponding frame arm with the second blade edge extending transverse to the direction of the corresponding frame arm, the second blades each having a first set of notches forming a circle when the stripping apparatus is in a closed position and a second set of notches substantially forming a circle when the stripping apparatus is in the closed position.

Cables are constructed with embedded discontinuities in the cable jacket that allow the jacket to be torn to provide access to the cable core. The discontinuities can be longitudinally extending strips of polymer material coextruded in the cable jacket.

An adjustable cable slitter includes two components each comprising a main body portion, a coupling device at one end of the main body portion and a T-shaped handle disposed at an opposite end of the main body portion. The coupling device couples the two components together allowing the two components to rotate and be expanded. A channel runs along an interior length of each of the main body portions. A blade housing on at least one of the components of the main body portion securely holds a knife blade with a predetermined amount of cutting edge protruding into the channel. The knife blade tip can be oriented to cut a circumferential cut in the cable sheath or a longitudinal cut along the length of the cable. The exposed portion of the blade pierces the sheath cutting the cable near its end or in a middle of the cable.

The present invention discloses a cable stripping tool, which is used for stripping an outer surface of a cable. The cable stripping tool comprises a first main body element and a second main body element corresponding to each other. The first main body element has a longitudinal axis, and comprises a first cable containing groove, a first handling portion and a first pivoting portion. The first cable containing groove is disposed along the longitudinal axis. The first handling portion is extended from a side wall of the first main body element, wherein the side wall is opposite to the first cable containing groove. The first pivoting portion is located on a side surface of the first main body element. The second main body element comprises a second cable containing groove, a second handling portion, and a second pivoting portion, wherein the second pivoting portion pivots to the first pivoting portion.

Methods of transforming a cable are disclosed herein, wherein the cable comprises an inner conductor and an insulator disposed around the inner conductor, and wherein some embodiments include heating the inner conductor to soften at least a portion of the insulator adjacent to the inner conductor, directing a fluid along the softened insulator and thereby creating a space between the inner conductor and the insulator along a length of the cable, injecting a lubricant into the space between the inner conductor and the insulator, and after creating the space between the inner conductor and the insulator, extracting the inner conductor from the cable.

Cables are constructed with embedded discontinuities in the cable jacket that allow the jacket to be torn to provide access to the cable core. The discontinuities can be longitudinally extending strips of polymer material coextruded in the cable jacket.

A tool for removing insulation in mid-span of a cable carrying a signal-transmitting conduit comprising a lower body section and an upper body section movable toward and away from the lower body section. The tool includes a curved mandrel disposed on the lower body section, the curved mandrel having a central peak portion and adjacent portions curving downward away from the peak portion, to present a mid-span portion of the cable insulation on a side away from the mandrel peak portion. The tool includes a blade disposed on the upper body section, the blade movable toward and away from the curved mandrel. The cable is securable in the curved mandrel in a curved position, allowing the blade to shave the cable insulation allowing access to the signal-transmitting conduit. The tool may include an adjustment barrel having a plurality of height adjustment surfaces disposed at a different distance from the barrel axis, each height adjustment surface positioning the blade a different distance from the mandrel.

An optical fiber coating removal device which heats a coating of an optical fiber with a heater and removes the coating with a blade includes a communicator which receives information based on optical fiber type information to specify an optical fiber type selected by a user from among a plurality of optical fiber types, transmitted from an external device to which the optical fiber type information has been input, and a heater which heats a coating of an optical fiber using the received information based on the optical fiber type information. The heater can heat a coating under a plurality of conditions according to the optical fiber type information.

Cables are constructed with embedded discontinuities in the cable jacket that allow the jacket to be torn to provide access to the cable core. The discontinuities can be longitudinally extending strips of polymer material coextruded in the cable jacket.

A telecommunications cable jacket insertion system operates to insert a telecommunication cable into a jacket after the jacket has been separately extruded. The system includes a jacket having structures for easily inserting a cable therein over a long distance in a field location. The system can further include a tool for facilitating the insertion of the cable into the jacket. Further, a cabling system includes a cable assembly that is disaggregated into a robust outer jacketing portion and a manageable fiber optic cable portion. For regions of a cable installation where a robust cable construction is desired, the manageable fiber optic cable portion is sheathed or otherwise contained within the robust outer jacketing portion. For regions of a cable installation where a robust cable construction is not needed, the manageable fiber optic cable portion extends beyond or outside of the robust outer jacketing portion.