ATLANT 3D links materials discovery to fabrication

ATLANT 3D has launched NANOFABRICATOR PRO, a manufacturing platform designed to connect computational materials discovery with programmable atomic-scale fabrication, experimental validation, and device prototyping. The Copenhagen company is positioning the equipment for semiconductor, advanced-packaging, quantum-technology, and other materials-development applications.

The platform is based on ATLANT 3D’s Direct Atomic Layer Processing technology, or DALP, which uses localised processing to deposit and modify material at atomic-layer scale. Rather than separating materials design, fabrication, and experimental validation into independent laboratory stages, the company intends NANOFABRICATOR PRO to place those activities inside a more closely connected development workflow.

ATLANT 3D says the equipment is SEMI-compliant and is being industrialised with Automated Industrial Robotics, which will manufacture the platform in the United States. The partnership gives the company a route towards repeatable equipment production while it develops the process architecture and software used to control the system.

The platform also forms part of ATLANT 3D’s proposed A-HUB autonomous materials foundry concept, which combines materials discovery, fabrication, and validation infrastructure. Future development is expected to add integrated metrology and further automated process control, allowing experimental results to be fed back into subsequent material and process decisions.

Materials development is increasingly able to generate candidate structures and compositions computationally, but the physical testing cycle remains constrained by deposition equipment, cleanroom access, sample transfers, characterisation, and the time required to fabricate successive experiments. A faster computational search does not remove those physical bottlenecks.

Programmable local deposition offers one route to increasing experimental throughput because multiple material combinations or processing conditions can be investigated without running every variation through a full conventional wafer flow. That can be useful during early semiconductor process development, where engineers may need to understand interfaces, local film behaviour, or material compatibility before committing to larger-scale processing.

The challenge is transferring successful experiments into manufacturing. Semiconductor process integration demands repeatability, contamination control, uniformity, compatible thermal budgets, and reliable interaction with later etch, clean, lithography, packaging, and test stages. A promising materials result is of limited value if it cannot survive the remainder of the process flow.

NANOFABRICATOR PRO therefore has to do more than generate experimental structures quickly. Its commercial value will depend on whether users can reproduce results across substrates and systems, correlate them with reliable metrology, and transfer useful processes into manufacturing equipment operating at higher volumes.

ATLANT 3D has already been extending its equipment activity beyond internal development. The company secured an order earlier this year for a NANOFABRICATOR LITE system intended for an AI-driven materials-discovery laboratory, while a collaboration in Singapore is examining shared infrastructure for advanced materials development, semiconductor manufacturing, advanced packaging, and silicon photonics.

The PRO platform moves that programme towards more industrial equipment, with SEMI compliance and external US manufacturing now part of the proposition. Deployment data will determine whether the combination of programmable deposition, automated experimentation, and integrated metrology can shorten semiconductor materials development without creating another difficult transfer step between laboratory results and production.