Tee, Slip x Slip x Slip PVC Schedule 80 6" (801-060)

The 6" PVC Schedule 80 Tee (801-060) is a heavy-duty, full-bore branch fitting that delivers a clean 90° branch outlet off a 6" run with slip (socket) connections on all three ports — permanently solvent welded to Schedule 80 PVC pipe at every connection. The equal-bore configuration maintains full 6" diameter through both the run and the branch outlet, making this a true full-flow tee appropriate for systems where maintaining branch capacity equal to the run is a hydraulic or operational requirement.

All three slip connections accept standard PVC solvent cement for a fast, structurally sound, pressure-rated bond directly to Schedule 80 pipe. The fully welded assembly creates a monolithic fitting-to-pipe joint at every port — no threads to leak, no mechanical connections to loosen under vibration or thermal cycling, and no corrosion pathway at the joint interface. For 6" industrial and process piping that will be buried, enclosed, or installed in environments where joint access after installation is limited or impossible, the all-slip solvent weld configuration is the correct long-term choice.

Schedule 80's thicker wall construction provides significantly elevated pressure ratings, greater resistance to mechanical impact, and reliable performance across the chemically aggressive service environments — acids, caustics, oxidizers, chlorinated compounds, and industrial process fluids — where Schedule 40 is insufficient. At 6", Schedule 80 construction also provides the structural mass and socket depth that large-diameter solvent weld joints require for consistent, high-integrity bonds across the full socket engagement zone. The dark gray PVC color is the recognized industry identifier for Schedule 80, providing immediate visual confirmation at inspection or maintenance that the system meets industrial-grade specifications throughout.

Manufactured to ASTM D2467 standards, the 801-060 delivers the dimensional precision and socket concentricity critical for reliable large-diameter solvent weld joints — where fit quality between pipe OD and socket ID directly governs joint integrity and long-term leak-free pressure performance.

Specifications:

Industries & Applications:

Chemical Processing & Industrial Fluid Handling Full-bore 6" tees are standard junction fittings in chemical processing headers where branch lines must carry the same flow volume as the primary run — reagent distribution loops, process fluid recirculation headers, and multi-unit feed manifolds where no flow reduction at the branch point is acceptable. The all-slip Schedule 80 construction provides the chemical resistance required against concentrated acids, caustic solutions, chlorinated process fluids, and oxidizing compounds, with the permanent solvent-welded assembly delivering the joint integrity that enclosed or buried chemical piping demands over a long service life.

Industrial Pump Discharge & Distribution Headers Six-inch pump discharge headers in industrial cooling, fluid transfer, and pressure boosting applications branch off full-bore circuits to parallel pump loops, storage tank headers, and process distribution manifolds. A full-bore tee at the branch point maintains flow capacity in both the run continuation and the branch circuit simultaneously — critical in parallel pump configurations and balanced distribution systems where restricting either path degrades system performance.

Water & Wastewater Treatment Plant Piping Primary influent and effluent headers, filter backwash supply mains, aeration distribution headers, and sludge transfer piping in treatment plants use full-bore 6" tees at flow split and circuit branch points where maintaining full pipe capacity in both directions is a process design requirement. Schedule 80 construction is the standard for treatment plant piping subject to continuous pressure, chemical dosing exposure, and the long service life expectations of municipal infrastructure.

High-Pressure Irrigation & Agricultural Distribution Large-scale irrigation systems running Schedule 80 mainlines at elevated pressures — high-head drip systems, center pivot supply mains, and commercial greenhouse distribution headers — use full-bore tees at zone splits and parallel circuit branch points where equal flow distribution between the run continuation and the branch circuit is required for uniform coverage across large irrigation areas. The permanent slip construction is well suited to buried mainline installations where long-term joint integrity under soil load and operational pressure cycling is the design priority.

Industrial Cooling & Process Water Systems Cooling water supply and return mains in large industrial facilities branch to parallel cooling circuits, equipment clusters, and cooling tower cells at full-bore tee junctions where restricting branch capacity relative to the run would create flow imbalances across the cooling system. Schedule 80 PVC at these branch points resists the chemical treatment agents — biocides, scale inhibitors, and corrosion inhibitors — that make metallic fittings a liability in recirculating cooling water systems.

Mining, Mineral Processing & Heavy Industrial Process water distribution mains, leach solution headers, and reagent supply piping in mining and mineral processing operations are built in Schedule 80 PVC throughout to withstand the highly corrosive hydrometallurgical process environments. Full-bore tees at flow split points in these headers distribute equal flow volumes to parallel process circuits — heap leach distribution laterals, solvent extraction feed headers, and pregnant solution collection manifolds — where balanced flow distribution across the branch and run is a process performance requirement.

Fire Suppression & Industrial Safety Systems In industrial facilities where PVC is code-permissible for fire suppression applications, Schedule 80 6" tees serve as branch fittings in sprinkler feed mains and deluge system distribution headers where full-bore branch capacity is required to maintain adequate flow and pressure to all zones simultaneously during a suppression event.