Bring in the routed board as your EDA tool wrote it, then work with the copper: zoom through it in 2D, turn it over in 3D, measure it against fab rules, light up the traces behind a requirement, and export a BOM, a KiCad project, Specctra DSN, an IPC-2581 netlist (connectivity only) or circuit-json. Gerbers and the fab package come from the tool that drew the board, since the layout is its own. The copper stays exactly as your EDA tool laid it out; ATE·IQ™ reads and measures it, and never routes it.
Cadence Allegro Fabmaster, IPC-2581, ODB++, Specctra DSN and KiCad boards import with their copper (pads, holes, vias, traces, pours and the outline) into one stored model in an open format. Imports never write a private format; exports never read one. The full list is on EDA import & export.
The layout tab zooms through the copper with every part's designator labelled. The 3D tab turns the board over, and downloads it as a glTF binary that opens in any glTF viewer. Pick a requirement and the traces behind its test light up on the board.
The geometric DRC measures the real copper: trace width per net class, pad-to-trace clearance and annular ring, each finding naming its rule and the measured value against the threshold. Electrical faults (a same-layer crossing between nets, a floating via) are errors, not warnings: a board that is shorted as drawn cannot pass silently. Where KiCad is installed, the board can also be run through KiCad's own DRC as a second opinion, on a card of its own.
An imported board exports a BOM, a KiCad project, Specctra DSN, an IPC-2581 netlist (connectivity only), circuit-json and, where the import carries a schematic, a page to print or save as PDF. Gerbers and the fab package come from the tool that drew the board, since the layout is its own.