Amsight Launched Space Component Qualification Project

The DIQAM project aims to streamline the certification of additively manufactured aerospace parts via automated data workflows.

Updated on Oct. 6, 2026 in Quantum Computing

Bold flat-color editorial illustration of a metallic aerospace propellant tank, evoking structural integrity and technical precision in aerospace manufacturing.
Amsight has launched the DIQAM project to standardize and automate the qualification of 3D-printed space hardware for European aerospace manufacturers. AI Illustration. Upload story photo >

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In September 2026, Hamburg-based amsight initiated the 12-month DIQAM project to standardize the qualification of 3D-printed space hardware. The effort is currently in the research and development phase under the support of the ESA Future Launchers Preparatory Programme.

Why it matters

Current industry standards for qualifying additively manufactured parts rely on labor-intensive manual inspections and documentation. This project seeks to accelerate the certification timeline by automating the aggregation of sensor and material data.

The DIQAM framework targets the automated ingestion and statistical evaluation of process and sensor data for hardware like the 4U ISPTech propellant tank. It intends to replace manual evidence assembly with a standardized reference specification.

The players

amsight

A Hamburg-based technology firm focused on digital engineering and industrial qualification processes.

ArianeGroup

An aerospace contractor specializing in launch vehicles and space transportation systems.

ESA Future Launchers Preparatory Programme

An initiative by the European Space Agency supporting the development of next-generation launch vehicle technologies.

Fraunhofer IAPT

A research institute focused on the development and optimization of additive manufacturing technologies.

ISPTech

An aerospace engineering company that develops advanced propulsion systems and propellant tanks.

The details

The project develops a Digital Qualification Evidence Framework, a software-driven architecture designed to unify process data, machine sensor telemetry, and material characteristics. By automating the aggregation of inspection results, the framework aims to verify the structural integrity of complex components. The system is undergoing validation using an ArianeGroup Phase Change Material container and an ISPTech 4U propellant tank to ensure compatibility with rigorous aerospace manufacturing requirements.

Timeline

  1. September 2026: The DIQAM project officially began.

  2. October 14, 2026: The project will be presented at the ESA Future Space Transportation Autumn Session in Paris.

The Tech Race

The DIQAM project aligns with broader European initiatives under the ESA Future Launchers Preparatory Programme to shift from bespoke manual testing to standardized digital certification. It represents a systematic effort to align additive manufacturing throughput with the safety requirements of modern launch vehicle development.

This project is currently in a research and development phase and does not yet impact commercial manufacturing workflows. Aerospace engineers and manufacturers should track the project's output in late 2026 for the release of the proposed reference specification.

The takeaway

The DIQAM project represents a shift toward automated digital verification in the aerospace supply chain. Stakeholders should monitor the October 14, 2026, presentation in Paris for the initial software prototype and reference specification.

What happens next

The project results and a prototype software demonstration are scheduled for presentation at the ESA Future Space Transportation Autumn Session on October 14, 2026.

Further reading

For more on the broader landscape of digital industrial standards, see our Quantum Computing section.

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Do you trust automated digital processes to maintain the same quality standards as traditional manual inspections?