Abstract: A fiber optic assembly is provided including a base configured to be mounted to a surface, a sidewall extending from the base, a cover configured to engage the sidewall to enclose a portion of the fiber optic assembly, a midplane separating a first portion of the fiber optic assembly from a second portion of the fiber optic assembly, and a hinge disposed between the midplane and the sidewall, which enables the midplane to transition between an open position and a closed position. The midplane includes a plurality of adapters disposed through the midplane from a first side to a second side and a plurality of splice holders disposed on the second side configured to retain at least one fiber optic splice connection between an optical fiber of an input cable and an adapter of the plurality of adapters.

Abstract: A fiber optic module having a module housing and a module sub-assembly. The module housing defines at least an interior space, at least one adapter aperture and at least one input aperture. The module sub-assembly defines at least one fiber optic cable, for example, passing through the at least one input aperture, at least one multi-fiber connector on an end of the fiber optic cable, and at least one single fiber connector on an opposite end of the fiber optic cable, the multi-fiber connector being in optical communication with the at least one single fiber connector, the multi-fiber connector capable of flexing on the at least one fiber optic cable relative to the module housing.

Abstract: A fiber management frame for a fiber optic closure having a removable tray holder configured to mount a fiber optic tray offset from a fiber management interface. The tray holder has optical fibers mounted thereon and can be mounted and/or removed from the fiber management interface without interfering with optical fibers mounted on the fiber management interface. The fiber management interface defines a first slack storage area for a first group of optical fibers. The removable tray holder defines a second slack storage area for a second group of optical fibers offset from the fiber management interface. The fiber optic tray can be mounted to or removed from the fiber management interface without interfering with the first group of optical fibers.

Abstract: A strain relief device for securing three radially arrayed flat cables coming into a closure includes a body having three armatures extending radially. Each armature includes at least two cantilevered segments extending from the at least one armature in opposing directions. At least one cable may be received in a receiving area partially defined by the armature and the cantilevered segment. Compressive force acting on the strain relief device secures the cables in the receiving area relative to the strain relief device.

Abstract: A fiber management frame for a fiber optic closure having a removable tray holder configured to mount a fiber optic tray offset from a fiber management interface. The tray holder has optical fibers mounted thereon and can be mounted and/or removed from the fiber management interface without interfering with optical fibers mounted on the fiber management interface. The fiber management interface defines a first slack storage area for a first group of optical fibers. The removable tray holder defines a second slack storage area for a second group of optical fibers offset from the fiber management interface. The fiber optic tray can be mounted to or removed from the fiber management interface without interfering with the first group of optical fibers.

Abstract: A strain relief device for securing three radially arrayed flat cables coming into a closure includes a body having three armatures extending radially. Each armature includes at least two cantilevered segments extending from the at least one armature in opposing directions. At least one cable may be received in a receiving area partially defined by the armature and the cantilevered segment. Compressive force acting on the strain relief device secures the cables in the receiving area relative to the strain relief device.

Abstract: A fiber optic module having a module housing and a module sub-assembly. The module housing defines at least an interior space, at least one adapter aperture and at least one input aperture. The module sub-assembly defines at least one fiber optic cable, for example, passing through the at least one input aperture, at least one multi-fiber connector on an end of the fiber optic cable, and at least one single fiber connector on an opposite end of the fiber optic cable, the multi-fiber connector being in optical communication with the at least one single fiber connector, the multi-fiber connector capable of flexing on the at least one fiber optic cable relative to the module housing.