A compressed nested ferrule, holder, retainer, and spring let the connector pass through 5.5 mm wiring tubes while maintaining reliable locking.
Staggered connector groups and nested tube overlap shrink multi-connector optical cable housings for easier routing inside station buildings.
Photograph-based 3D site models enable virtual fiber route inspection and trench planning, cutting repeat site visits and installation cost.
A removable pulling grip protects pre-terminated fiber ends and carries tensile loads, easing high-count cable routing through tight ducts.
Direct surface bonding with uncured protectant and curing speeds cable deployment while avoiding trenching damage and high installation cost.
A meandering route in grooves or laying bands secures extra optical cable length on roads or walls without adding cable, supporting fast, economical connections.
An octagonal connector body and removable caps let LC-style fibre connectors pass through small wall apertures without damage or dust exposure.
A pull-back fiber layout uses split distribution points and bidirectional splicing to cut cable waste while expanding subscriber access in MDUs.
A multi-axis working head automates optical fiber placement on substrates to cut manual handling while improving laying precision and quality consistency.
An arc-segment guide blocks rigid steel pipes, lets optical fibers pass, and preserves OPGW insulation against short circuits and moisture.
Silicone sheath composition and a polygonal cable profile cut duct friction and traction while reducing splicing time in 3000+ fiber cables.
Pre-assembling the fiber distribution box with an air-blown cable cuts on-site splicing, lowers construction cost, and shortens deployment.
A recessed tape-and-sealant trench secures roadway fiber cables against tire shear while enabling faster installation with less traffic disruption.
A low-density polyethylene sheath with 0.5-10% silicone improves hardness and slidability, extending microduct air-blowing distance.