Fiber optic closure
A component for a closure is disclosed herein. The component includes a collar extending around a central axis. The component also includes a first expansion housing positioned outside the collar in a radial direction relative to the central axis. The first expansion housing has an interior region in communication with an interior of the collar. The first expansion housing also includes a first adapter mounting wall defining a plurality of first adapter mounting openings in which a plurality of first fiber optic adapters are mounted. The first fiber optic adapters include first connector ports adapted for receiving connectors from outside the first expansion housing.
1. A component comprising:
a collar extending around a central axis; and
a first expansion housing positioned outside the collar in a radial direction relative to the central axis, the first expansion housing having an interior region in communication with an interior of the collar, the first expansion housing including a first adapter mounting wall defining a plurality of first adapter mounting openings in which a plurality of first fiber optic adapters are mounted, the first fiber optic adapters including first connector ports adapted for receiving connectors from outside the first expansion housing.
2. The component of claim 1 , wherein the collar includes first and second ends spaced-apart from one another in an orientation along the central axis, and wherein the collar includes circumferential flanges at the first and second ends.
3. The component of claim 1 , wherein the first adapter mounting openings are spaced along a curved path that curves about the central axis.
4. The component of claim 1 , wherein the component also includes a second expansion housing positioned outside the collar in a radial direction relative to the central axis, the second expansion housing being positioned on an opposite side of the collar as compared to the first expansion housing, the second expansion housing having an interior region in communication with the interior of the collar, the second expansion housing including a second adapter mounting wall defining a plurality of second adapter mounting openings in which a plurality of second fiber optic adapters are mounted, the second fiber optic adapters including second connector ports adapted for receiving connectors from outside the second expansion housing.
5. The component of claim 4 , wherein the first and second adapter mounting walls are aligned along a plane generally perpendicular to the central axis.
6. The component of claim 1 , wherein the expansion component carries a service capacity increasing structure selected from the group consisting of: a) an optical power splitter; and b) an optical wavelength splitter.
7. The component of claim 1 , further comprising a service capacity increasing structure having output optical fibers having connectorized ends that are inserted in the first fiber optic adapters.
8. The component of claim 7 , wherein the service capacity increasing structure is mounted within the first expansion housing and is selected from the group consisting of: a) an optical power splitter; and b) an optical wavelength splitter.
9. A splice closure comprising:
a base defining a plurality of cable through-ports accessible from an end of the splice closure that faces in a first direction;
a dome; and
an expansion component including a collar that mounts between the base and the dome, the collar defining a central longitudinal axis that extends through the base and the dome, the expansion component also including first expansion housing positioned outside the collar in a radial direction relative to the central axis, the first expansion housing having an interior region in communication with an interior of the collar, the first expansion housing including a first adapter mounting wall defining a plurality of first adapter mounting openings in which a plurality of first fiber optic adapters are mounted, the first fiber optic adapters including first connector ports adapted for receiving connectors from outside the first expansion housing, the first adapter wall having an outer surface that faces generally in the first direction, and the first fiber optic adapters being axially and radially outwardly offset from the cable through-ports of the base.
10. The splice closure of claim 9 , wherein the collar includes first and second ends spaced-apart from one another in an orientation along the central axis, and wherein the collar includes circumferential flanges at the first and second ends.
11. The splice closure of claim 9 , wherein the first adapter mounting openings are spaced along a curved path that curves about the central axis.
12. The splice closure of claim 9 , wherein the expansion component further includes a second expansion housing positioned outside the collar in a radial direction relative to the central axis, the second expansion housing being positioned on an opposite side of the collar as compared to the first expansion housing, the second expansion housing having an interior region in communication with the interior of the collar, the second expansion housing including a second adapter mounting wall defining a plurality of second adapter mounting openings in which a plurality of second fiber optic adapters are mounted, the second fiber optic adapters including second connector ports adapted for receiving connectors from outside the second expansion housing.
13. The splice closure of claim 12 , wherein the first and second adapter mounting walls are aligned along a plane generally perpendicular to the central axis.
14. The splice closure of claim 9 , wherein the expansion component carries a service capacity increasing structure selected from the group consisting of: a) an optical power splitter; and b) an optical wavelength splitter.
15. The splice closure of claim 9 , further comprising a service capacity increasing structure having output optical fibers having connectorized ends that are inserted in the first fiber optic adapters.
16. The splice closure of claim 15 , wherein the service capacity increasing structure is mounted within the first expansion housing and is selected from the group consisting of: a) an optical power splitter; and b) an optical wavelength splitter.