Liquid and hybrid cooling systems use pipework to distribute coolant between the system’s components. Depending on the design, the assemblies may connect to coolant distribution units (CDUs), cold plates or rear-door heat exchangers.
What changes in the workshop?
- Repeated manifold geometries make positioning and cycle consistency important.
- Cleanliness and inspection requirements need to be planned into the production route.
- Off-site prefabrication moves assembly work into a controlled workshop environment.
- Reducing the number of joints can reduce the associated fitting, welding and inspection operations.
Where can T-DRILL fit?
Collaring forms branch outlets from the run tube, while flanging forms the pipe end for an appropriate loose-flange connection. Both can reduce selected fabrication steps in suitable cooling assemblies. The design still determines the material, dimensions, joining method and acceptance requirements.
Assess the complete manifold or skid against the existing production route. Results from a different project are not a substitute for measuring the actual workpiece.
What should be included in a proof of concept?
- Drawings, material grades, outside diameters and wall thicknesses.
- Outlet positions, spacing, tolerances and the number of branches.
- Cleanliness, joining and inspection requirements from the project.
- Current cycle time, operator involvement and expected production volume.
- Agreed criteria for workpiece quality and the process result.
Have a data centre manifold or skid?
Send the geometry and current process data so we can assess the scope of a trial.
Discuss a proof of conceptExplore T-DRILL solutions for data centres, compare collaring and tee fittings, or calculate a process scenario.
Technical source: T-DRILL data centre applications ↗.