Navigate the platform by what you are building, not by tool name. Each application surfaces the exact processes, materials, calculators, and reference data relevant to your engineering challenge. Roadmap tools are shown in context — so you can see what's coming before you need it.
Weight-critical brackets, ribs, housings, and ducting for flight
Topology-optimised metallic structural parts where AM's design freedom directly displaces buy-to-fly ratio. Typical requirements: AS9100D, NADCAP AM, AMS/ASTM qualification, mechanical testing, and HIP for fracture-critical parts.
Gyroid and TPMS lattice cores, conformal channels, and cold plates
AM enables heat exchanger geometries impossible to machine or braze: triply-periodic minimal surfaces, variable-density lattice cores, and conformal coolant paths matched to thermal gradients. Key challenge: thin-wall printability, internal surface roughness, and pressure drop validation.
Conformal-cooled inserts, cavity repairs, and tool steels you can't drill
H13 and maraging steel inserts with conformal cooling channels cut cycle time by 20–40 % while eliminating weld-repair downtime. AM also enables design variants in days instead of weeks for low-volume tooling. Critical: mandatory preheat, EDM re-temper for H13, and carbon equivalent check for DED repairs.
Porous orthopaedic scaffolds, patient-specific implants, and surgical instruments
Osseointegration-optimised lattice structures for load-bearing bone implants, patient-specific titanium craniofacial plates, and Co-Cr-Mo dental frameworks. Regulatory pathway (FDA 510(k), CE/MDR) and biocompatibility testing (ISO 10993) are inseparable from the AM process qualification.
SLS, FDM, SLA, and MJF — from day-1 prototypes to production-grade end-use parts
PA12 for industrial function, PEEK for high-temperature and medical, photopolymers for optical or fine-feature parts. Decisions here turn on surface finish, chemical resistance, and economics at volume — none of which are obvious without number-crunching pack density and cure depth alongside part cost.
Batch economics for LPBF, binder jetting, and metal MJF at volume
At 50+ parts per build the question shifts from 'can AM make this?' to 'is in-house or bureau cheaper, and what's the true machine hourly rate including powder, service, and yield?'. Binder jetting offers the lowest cost-per-part for simple geometries but adds debind/sinter steps and significant shrinkage compensation.
Near-net-shape forgings, in-situ repair, and wire-arc deposition at scale
DED and WAAM enable part sizes that dwarf LPBF build envelopes and allow repair of high-value components (turbine blades, tooling, naval structures). Thermal management is critical: multi-pass builds accumulate heat; melt pool geometry and carbon equivalent predictions drive pre-heat and interpass temperature schedules.
Parameter optimisation, coupon design, and statistical material qualification
Opening a new parameter set, qualifying a new alloy, or moving a qualified process to a new machine. Starts with VED mapping and melt pool characterisation, progresses through HT optimisation and HIP, and ends with statistical mechanical testing against AMS 7003 or ASTM F3001. Powder health monitoring is ongoing.
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