Projects at a glance – Research and Development for Industry

The GEPARD research project develops an AI-based assistance system that automatically generates or adapts assembly plans, CAM data and other production documents when variants are changed. The aim is to reduce the workload of experts, secure knowledge and make industrial production both more efficient and more adaptable.

The aim of the CompSTLar project is to digitally transform the aviation industry using an integrated physical and digital infrastructure for high-performance thermoplastic composites. Rising CO2 emissions associated with the increase in air traffic give the 15 European project partners reason to strengthen the sustainability of European aviation and contribute to the EU targets for climate neutrality by 2050.

The research project “Flexibilization of work time models and workforce planning in production (FlexPEP)” addresses these challenges with the aim of making manufacturing companies more resilient and adaptable. By developing flexible working time models, optimized workforce planning and adaptive training, operational requirements and the individual needs of employees are to be better reconciled.

The reliability of AI-based decisions in production is to be ensured in the research project “AIDpro”. To this end, a comprehensive solution for automated data validation and anomaly detection in process data streams is being developed.

The ISEGRIM research project is developing an additive repair process for tungsten components in fusion reactors. In addition, the project partners will develop a system concept that can be integrated into a fusion power plant. This new technology repairs defects caused by material erosion, extends the service life of components and, thus, improves the economic efficiency of fusion reactors.

In the “DIAMETER” project, we at Fraunhofer IPT are developing hybrid manufacturing systems in metal processing to foster a circular economy. By integrating additive manufacturing with milling technology, we achieve enhanced material efficiency, thereby reducing the carbon footprint and supporting local production. This approach not only increases design flexibility but also enhances the sustainability of products.

The “MemForm3D” research project is developing an innovative forming process for perforated, complex 3D-formed thin glass. The patented combination of vacuum-assisted process control and a flexible membrane enables the cost-effective production of high-precision glass components for the first time - without time-consuming post-processing.

The "DigiGlas" research project aims to make optics production more efficient by means of molding: With the help of AI models and simulations, production processes are being optimized and manufacturing becomes significantly more resource-efficient and eco-nomical.

In the “OTP2” research project, a completely sealed 3D protective cover made of ultra-thin glass with integrated optical sensors for the security modules of satellite receivers is being developed. These sensor foils enable a tamper-proof, permanent seal.

The “RauPE - Robust automated production of therapeutically applicable extracellular vesicles” project aims to develop an expansion platform based on a membrane stirrer bioreactor for the cost-effective production of stem cell based therapies in North Rhine-Westphalia.