Match the active port
Copper category or optical connector, polish, fiber type, transceiver interface, and port orientation confirmed from equipment data.

Solution / Data & equipment rooms
A dense rack is not solved by adding more ports alone. Cord diameter, connector clearance, trunk routing, polarity, loss budget, labeling, and moves-and-changes access must fit the rack elevation.
Planning outcome
A rack-aware patching schedule that shows interfaces, port density, cord routes, optical mapping, management space, and the acceptance test for each link type.
Typical system map
Copper category or optical connector, polish, fiber type, transceiver interface, and port orientation confirmed from equipment data.
Slim or standard copper cords, LC assemblies, panel density, bend clearance, color rules, and port labels selected together.
MPO fiber count, gender, key orientation, polarity method, breakout mapping, loss grade, and route length locked before assembly.
Horizontal and vertical management, slack locations, enclosure access, bundle size, and rack-unit allocation checked against the elevation.
Project inputs
Buyer questions
Use it when rack density and airflow benefit from a smaller cable diameter and the selected channel design supports that construction. Confirm conductor gauge, channel length, PoE load, bundle condition, and plug clearance before approval.
State fiber type, total fibers, connector format, gender, key orientation, polarity, breakout mapping, pinning where applicable, loss grade, length, pulling-eye requirement, labels, and test report format.
No. Include patch-panel height, horizontal managers, enclosure access, switch location, cord bend radius, slack storage, power separation, and a service path. A port-only calculation can create a rack that is difficult to patch.
Technical checklists
Have a schedule, drawing, or BOQ?
SUNPU can identify missing configuration fields, related components, sample requirements, and available model-specific documents.