A stripping tool configured to sequentially strip the layers of a cable, such as a fiber optic cable. The stripping tool includes multiple channels, each with a distinct role in stripping a layer of the fiber optic tool. The user sequentially moves the cable from channel-to-channel while operating the tool. At the conclusion of these operations the cable is appropriately stripped and ready for a subsequent operation.

A cable shaving tool including a blade holder having a guide channel extending along the blade holder length. The guide channel includes a cable channel, and a control surface at opposing ends. A removable blade is secured to a blade support surface and the blade edge extends within the guide channel. The blade support and handle are disposed along a central axis. The shaving depth is determined by the differential between: (1) the distance from the cable channel to the bottom surface of the blade holder; and (2) the distance from the control surface to the bottom surface of the blade holder. The handle is secured to the blade holder and extends along the central axis, allowing an operator's hand to be positioned directly over the blade during a cut, apply a downward pressure on the cable to set the blade and then move the tool in a direction parallel to the cable length.

A cable shaving tool including a blade holder having a guide channel extending along the blade holder length. The guide channel includes a cable channel, and a control surface at opposing ends. A removable blade is secured to a blade support surface and the blade edge extends within the guide channel. The blade support and handle are disposed along a central axis. The shaving depth is determined by the differential between: (1) the distance from the cable channel to the bottom surface of the blade holder; and (2) the distance from the control surface to the bottom surface of the blade holder. The handle is secured to the blade holder and extends along the central axis, allowing an operator's hand to be positioned directly over the blade during a cut, apply a downward pressure on the cable to set the blade and then move the tool in a direction parallel to the cable length.

Some embodiments may include a packaged laser diode assembly, comprising: a length of optical fiber having a core and a polymer buffer in direct contact with the core, the length of optical fiber having a first section and a second section, the first section of the length of optical fiber including a tip of an input end of the optical fiber, wherein the polymer buffer covers only the second section of the first and second sections; one or more laser diodes to generate laser light; means for directing a beam derived from the laser light into the input end of the length of optical fiber; a light stripper attached to the core in the first section of the length of optical fiber. Other embodiments may be disclosed and/or claimed.

A laser device includes: a laser unit that outputs laser light; an output end that launches the laser light; a first fusion splice portion; and a second fusion splice portion. In each of the first fusion splice portion and the second fusion splice portion, two multi-mode fibers are fusion-spliced. Each of the two multi-mode fibers include a core through which the laser light propagates and a cladding that surrounds the core. The first fusion splice portion is disposed closer to the laser unit than is the second fusion splice portion. At least a part of the core in the first fusion splice portion contains a dopant that is the same type as a dopant contained in the cladding in the first fusion splice portion for decreasing a refractive index.

An optical fiber arrangement method includes: preparing an intermittently connected optical fiber ribbon including optical fibers arranged side by side at a first pitch larger than a fiber diameter; holding a non-connecting region of the optical fiber ribbon with a holder, where connecting portions intermittently connect the optical fibers extending out from the holder to each other; changing a width of the optical fiber ribbon in an interior of the holder; and arranging the optical fibers, extending out from the holder, with intervals of the optical fibers changed from the first pitch to a second pitch smaller than the first pitch by removing the connecting portions in a state where the holder is holding the optical fibers.

An optical fiber arrangement method includes: preparing an intermittently connected optical fiber ribbon including optical fibers arranged side by side at a first pitch larger than a fiber diameter; holding a non-connecting region of the optical fiber ribbon with a holder, where connecting portions intermittently connect the optical fibers extending out from the holder to each other; changing a width of the optical fiber ribbon in an interior of the holder; and arranging the optical fibers, extending out from the holder, with intervals of the optical fibers changed from the first pitch to a second pitch smaller than the first pitch by removing the connecting portions in a state where the holder is holding the optical fibers.

Some embodiments may include a packaged laser diode assembly, comprising: a length of optical fiber having a core and a polymer buffer in direct contact with the core, the length of optical fiber having a first section and a second section, the first section of the length of optical fiber including a tip of an input end of the optical fiber, wherein the polymer buffer covers only the second section of the first and second sections; one or more laser diodes to generate laser light; means for directing a beam derived from the laser light into the input end of the length of optical fiber; a light stripper attached to the core in the first section of the length of optical fiber. Other embodiments may be disclosed and/or claimed.

Disclosed is an elongated optic fiber stub portion that results from using an elongated hollow elastomeric tubular member, also known as an elongated rubber boot, preferably made of silicone rubber, in connection with a method for fusing cleaved end faces of two optic fibers together. The method includes several steps.

Disclosed is an elongated optic fiber stub portion that results from using an elongated hollow elastomeric tubular member, also known as an elongated rubber boot, preferably made of silicone rubber, in connection with a method for fusing cleaved end faces of two optic fibers together. The method includes several steps.