Fiber routing systems and methods
The present disclosure relates to fiber management systems and methods for facilitating assembling fiber optic devices in an efficient manner by allowing pre-processed and tested optical fibers to be pre-routed on a substrate prior to installation in their corresponding fiber optic devices.
1 . A method for manufacturing an optical circuit layout for an optical connection device including a plurality of optical connection locations arranged in a multi-dimensional configuration, the method comprising:
using a digital map corresponding to the multi-dimensional configuration of optical connection locations to control a robotic device which routes a plurality of optical fibers on a substrate, wherein the optical fibers are pre-tested optical fibers each having at least one pre-processed end that is a pre-connectorized end including a fiber optic connector, wherein the optical fibers are routed by the robotic device along fiber routing paths defined by the digital map, and wherein the optical fibers are routed on the substrate with the pre-processed ends of the optical fibers being positioned in a multi-dimensional arrangement that corresponds to the multi-dimensional configuration of the optical connection locations, wherein the optical fibers with pre-connectorized ends form optical pigtails, and wherein the optical pigtails are staged for ready access by the robotic device within packaging including spools having flanges defining channels in which pre-defined lengths of the optical fibers are coiled and holders for holding the fiber optic connectors at defined mounting locations on the packaging, wherein the holders are positioned at outer radial peripheries of the spools radially outside the channels, with the optical fibers being coiled within the channels radially between the connectors and spooling surfaces of the spools.
2 . The method of claim 1 , wherein the optical fibers are secured on along the fiber paths by: routing beads of adhesive material along the fiber routing paths on the substrate; and routing the optical fibers along the beads of adhesive material to secure the optical fibers to the substrate along the fiber routing paths.
3 . The method of claim 2 , wherein the optical fibers are pressed against the beads of adhesive material by a press roller as the optical fibers are routed along the beads of adhesive material.
4 . The method of claim 3 , wherein at least one driven roller feeds the optical fibers toward the press roller as the optical fibers are routed along the beads of material.
5 . The method of claim 4 , wherein the at least one driven roller pulls the optical fibers from packaging and pushes the optical fibers toward the press roller as the optical fibers are routed along the beads of material.
6 . The method of claim 5 , wherein the optical fibers have connectorized ends at the time the optical fibers are routed on the substrate, wherein the at least one driven roller and the press roller are carried by a fiber routing head, and wherein a connector gripper for grasping the connectorized ends and for positioning the connectorized ends on the substrate is carried with the fiber routing head.
7 . The method of claim 6 , wherein each packaging includes a connector holder, and wherein the connector gripper is adapted to remove the connectorized ends from the connector holders.
8 . The method of claim 7 , wherein portions of the optical fibers extend beyond an outer boundary of the substrate after fiber routing, and wherein the portions of the optical fibers are ribbonized after fiber routing.
9 . The method of claim 8 , wherein the portions of the optical fibers are located on spools during and after fiber routing, and wherein after each fiber is routed its corresponding spool is loaded into a spool holder of a spool holding location.
10 . The method of claim 9 , wherein the optical fibers are ribbonized by moving the substrate away from the spool holding location such that the fiber portions are pulled through a fiber ribbonization station, wherein the spools rotate within the spool holders to allow the fiber portions to be paid out from the spools as the substrate moves away from the spool holding location.
11 . The method of claim 10 , wherein the spools are fanned out with respect to one another at the spool holding location.
12 . The method of claim 11 , wherein a comb assists in fanning out the fiber portions as the fiber portions extend from the substrate to the spool holders.
13 . The method of claim 12 , wherein the substrate is supported by and moved by a vacuum plate.
14 . The method of claim 3 , wherein the press roller has a flat axial profile.
15 . The method of claim 2 , wherein the fibers are pressed against the beads of adhesive material by a roller arrangement including first and second rollers that are angled relative to one another and that cooperate to define a press pocket in which the fibers are received as the fibers are pressed toward the substrate by the roller arrangement.
16 . The method of claim 1 , wherein the optical fibers have connectorized ends, wherein the substrate defines openings, and wherein the connectorized ends are secured at the openings.
17 . The method of claim 1 , wherein the optical fibers have connectorized ends including ferrules covered by dust caps, and wherein the dust caps are bonded to the substrate as part of the routing process.
18 . The method of claim 1 , wherein the optical fibers have connectorized ends, wherein the substrate defines openings, wherein the optical fibers are each routed to separate ones of the openings, and wherein the connectorized ends extend at least partially past their corresponding openings.
19 . The method of claim 18 , wherein the connectorized ends include first portions that coincide with the openings and second portions that extend past the openings.
20 . The method of claim 19 , wherein the connectorized ends include ferrules covered by dust caps, wherein the dust caps are bonded to the substrate, and wherein the connectorized ends can be disconnected from the substrate by pulling the ferrules from their corresponding dust caps.
21 . A method for manufacturing an optical circuit layout for an optical connection device including a plurality of optical connection locations arranged in a multi-dimensional configuration, the method comprising:
using a digital map corresponding to the multi-dimensional configuration of optical connection locations to control a robotic device which routes a plurality of optical fibers on a substrate, wherein the optical fibers are pre-tested optical fibers each having at least one pre-processed end, wherein the optical fibers are routed by the robotic device along routing paths defined by the digital map, and wherein the optical fibers are routed on the substrate with the pre-processed ends of the optical fibers being positioned in a multi-dimensional arrangement that corresponds to the multi-dimensional configuration of the optical connection locations;
wherein the optical fibers have connectorized ends at the time the optical fibers are routed on the substrate, wherein a driven roller and a press roller are carried by a fiber routing head, and wherein a connector gripper for grasping the connectorized ends and for positioning the connectorized ends on the substrate is carried with the fiber routing head.
22 . The method of claim 21 , wherein the driven roller pulls the optical fibers from packaging, wherein each packaging includes a connector holder, and wherein the connector gripper is adapted to remove the connectorized ends from the connector holders.
23 . The method of claim 22 , wherein portions of the optical fibers extend beyond an outer boundary of the substrate after fiber routing, and wherein the portions of the optical fibers are ribbonized after fiber routing.
24 . The method of claim 23 , wherein the portions of the optical fibers are located on spools during and after fiber routing, and wherein after each fiber is routed its corresponding spool is loaded into a spool holder of a spool holding location.
25 . The method of claim 24 , wherein the optical fibers are ribbonized by moving the substrate away from the spool holding location such that the fiber portions are pulled through a fiber ribbonization station, wherein the spools rotate within the spool holders to allow the fiber portions to be paid out from the spools as the substrate moves away from the spool holding location.
26 . The method of claim 25 , wherein the spools are fanned out with respect to one another at the spool holding location.
27 . The method of claim 26 , wherein a comb assists in fanning out the fiber portions as the fiber portions extend from the substrate to the spool holders.
28 . The method of claim 27 , wherein the substrate is supported by and moved by a vacuum plate.
29 . A method for manufacturing an optical circuit layout for an optical connection device including a plurality of optical connection locations arranged in a multi-dimensional configuration, the method comprising:
using a digital map corresponding to the multi-dimensional configuration of optical connection locations to control a robotic device which routes a plurality of optical fibers on a substrate, wherein the optical fibers are pre-tested optical fibers each having at least one pre-processed end that is a pre-connectorized end including a fiber optic connector, wherein the optical fibers are routed by the robotic device along routing paths defined by the digital map, and wherein the optical fibers are routed on the substrate with the pre-processed ends of the optical fibers being positioned in a multi-dimensional arrangement that corresponds to the multi-dimensional configuration of the optical connection locations, wherein the optical fibers with pre-connectorized ends form optical pigtails, and wherein the optical pigtails are staged for ready access by the robotic device within packaging including spools having flanges defining channels in which pre-defined lengths of the optical fibers are coiled and holders for holding the fiber optic connectors at defined mounting locations on the packaging, wherein the holders are defined at least partially by the flanges, the channel of each spool extending around an exterior radial periphery of the spool and between the flanges, and wherein the optical fibers are coiled between the flanges and around spooling surfaces of the spools and the connectors positioned over the coiled fibers and between the flanges.