From research, to prototype, to industrial production.

Robotic WAAM toolpaths for cladding worn industrial parts. Variable bead width, surface-following passes, fixturing-aware path planning.

Non-planar toolpaths for form-fitting medical devices with complex organic geometries. Print along body contours in TPU and elastomers.

Layer-time-aware path planning, reinforcement-aware seam placement, multi-axis paths for non-planar walls.

How it works

Powerful and versatile, adapting to your needs

01

Ingest & analyze

Upload an STL, STEP, or 3MF. The geometry is voxelized and analyzed for curvature, overhangs, load directions, and feature topology.
02

Segment into regions

The part is automatically decomposed into print regions. An optimal strategy is chosen for thermal optimization, overhangs, material use.
03

Generate multi-axis toolpaths

Output G-code or vendor-specific motion programs. Collision-checked against your kinematics.
04

Auto-detect & fix problems

Mesh errors, self-intersections, unsupported overhangs, and unreachable regions are caught and repaired automatically.
05

Simulate & preview

use Flexam Digital Twin to preview the toolpath against your machine's kinematic model. Preview layer-by-layer, inspect print time, material usage, and reachability.
06

Live monitoring, logs and traceability

Layer progress, deposition parameters, and deviations from the planned path are tracked in real-time and recorded for certification.

Compatibility

Adapted to your kinematics. Don't see your device? We are working hard to expand our offering

Robotic arms

Multi-axis printers

Process types

Output formats