Current Collaborative Projects

According to the current state of the art, there are only inadequate approaches and methods to produce thin ceramics in a continuous process chain with high transparency, high dimensional accuracy as well as high surface and edge quality. But not only is there a lack of transparent, form-flexible ceramics, suitable processing technologies are also needed with which 3D components can be produced with the required qualities of surfaces and edges. Furthermore, there are currently no processes available which can treat the ceramic thin-glass composites necessary for a functional electronic component with switching and display functions. In the joint Fraunhofer project CeGlaFlex, the partners will investigate and develop, therefore, processes and process chains that can machine form-flexible ceramic and glass-based switching and display elements.

The project has set itself the goals 0f developing processes and process chains that can

• Produce thin and hence form-flexible transparent ceramics and display laminates with a thickness in the range of 100 μm,
• Process transparent, form-flexible ceramics and thin glass composites with high three-dimensional geometrical flexibility without damaging the material functions and
• Produce integrated switching and display elements on form-flexible substrates made of ceramic-glass composites.

For resource and energy efficiency in industrial production, innovative materials play a decisive role: Not only do they make production processes more economical, but they are also robust and environmentally friendly. The aim of LextrA, funded by the Federal Ministry of Education and Research (BMBF), is to develop additive processing technologies for special intermetallic alloys, e.g. molybdenum and vanadium silicides as well as iron aluminides. Such alloys are suitable for high-temperature applications in aerospace, power generation or toolmaking. Processes used for them include powder nozzle-based Laser Metal Deposition (LMD) and powder bed-based Selective Laser Melting (SLM), also known as laser-beam melting or laser powder-bed fusion (L-PBF). The project partners in LextrA have already successfully produced and processed Mo-Si-B alloys for turbine construction, which are suitable for operation at high hot-gas temperatures and can significantly increase the efficiency and efficiency of existing turbines. The project will help successfully develop additive processes to produce directionally solidified, low-defect structures, thereby allowing for greater overall flexibility in component design compared to established manufacturing techniques.

i-Recycle is linked to the ADIR project. ADIR explores new ways of extracting rare raw materials. As these are mainly used in electronic devices, the additional project, i-Recycle, collects used official mobile phones of the employees of the Fraunhofer Institutes and the Fraunhofer central administration so that technologies investigated in ADIR can be examined in practical test series.

LEMON will provide a new versatile Differential Absorption Lidar (DIAL) sensor concept for greenhouse gases and water vapour measurements from space.

During the last climate conference in Paris in December 2015, climate-warning limits have been discussed and agreed upon. In such frame, the need for a European satellite-borne observation capacity to monitor CO₂ emissions at global, European and country scales has been identified, as stated by the Copernicus report “Towards European operational observing system monitor fossil CO₂ emissions”.

New space missions are now being used (GOSAT, AIRS, IASI, …) or planned (OCO, IASI-NG, MicroCarb, MERLIN, …) for CO₂ and/or CH₄. Given the technical challenges, they are up to now mainly based on passive (high resolution spectrometers) instruments, Lidar instrument-based mission (MERLIN) is currently in development in Europe to probe methane only.

Therefore, the main goal of LEMON is to develop a versatile instrument, able to target CO₂, CH₄ and water vapour stable isotopes (H₂¹⁶O and HDO only, from now on referred to as water vapour or H₂O and HDO explicitly) with a single laser emitter.

The consortium consists of ONERA (FR), FRAUNHOFER (DE), CNRS (FR), KTH (SE), SPACETECH (DE), UiB (NO), INNOLAS (DE) and L-UP (FR). It has full expertise at Earth Observation technologies (from receiver, data acquisition, instrument control and versatile emitter) and is therefore able to fully explore, understand and validate the aforementioned advantages. The consortium is highly motivated to set-up and perform demonstrations at all instrument levels in order to showcase the project results. This will include the instrument set-up, TRL6 instrument validation, airborne demonstrations and CO₂, CH₄, H₂O isotopes measurements, as well as roadmaps and preliminary experiments towards space operation.

The LEMON total grant request to the EC is 3 374 725€ for the whole consortium and the project will be conducted within 48 months.

Microplastics enter our wastewater and the environment every day. Wastewater treatment plants are not able to sufficiently reduce microplastics. For this reason, the SimConDrill partners are focusing on the development of a filter which is ready for serial production and enables the filtration of particles down to 0.01mm (this equals the thickness of kitchen foil) on the basis of the patented cyclone filter. Due to its special technology, this filter is clogging and maintenance-free and not a disposable filter. Once the prototype has been built, it will be tested in a treatment plant using real wastewater.

The aim of the Interreg NWE BONE project, led by Prof. Lorenzo Morono, MERLN Insitute, Maastricht University is to research new methods for the improved treatment of bone fractures and to strengthen the performance of the North-West European economy. The four-year project started in March 2017. Eight partners from industry and research from the Netherlands, Germany, England, Ireland, France and Belgium have joined forces for this purpose.

Multiphoton polymerization (MPP) allows components to be produced with great precision – a resolution <1 μm – thanks to photo-crosslinking. Owing the high resolution, however, the build rates are so small that an economical production of components is hardly possible.

When MPP is combined with a printer based on digital light processing (DLP) for large area meshing (DLP), the build rate for a typical microfluidic device can be increased to such an extent that the process provides economical solutions for small lot production.

The project MultiPROmobil aims to study an integrated manufacturing and system technology that can produce bionically based lightweight structures efficiently in a single device with several manufacturing processes and without changing the manufacturing equipment. For this purpose, the project is researching and demonstrating a flexible and reconfigurable laser robot technology for integrated cutting, welding and metal deposition with a single processing head. This integrated process chain is intended to significantly strengthen the providers and users of the SME-dominated laser industry in NRW and, in particular, to help emerging e-mobile production in NRW remain agile on the world market.

In nearly every field of manufacturing, components and resulting products are becoming increasingly complex and more individual. Moreover, to succeed in the marketplace, companies have to shorten the time they need to move from an idea of a new product to launching it on the market. Established manufacturing processes are, however, reaching their limits to a certain extent. Additive manufacturing promises considerable time savings and process innovations to create value for the manufacturing industry; it can also help companies create completely new product features. Product, process and material data on additive manufacturing processes as well as innovative materials and innovative production equipment must be made available at an early stage in product development. The results of the ProLMD development project will play a key role in strengthening Germany’s international competitiveness over the long term in line with the German Federal Government’s High-Tech Strategy.

The AMable project facilitates the uptake of additive manufacturing in companies. The partners – institutes and companies with a wealth of experience in the field of additive manufacturing – provide comprehensive knowledge and support to European SME’s, midcaps and industry. The experts accompany each idea from the start to the first prototype – each challenge receives a business case assessment to identify the potential of the idea, the suitable services to develop it and a roadmap to ramp up production for a successful market entry.

AMable implements the Industrial Dataspace principle for Additive Manufacturing which follows the paradigm of leaving the data with the owner to put each participant in full command of his intellectual property. AMable also creates a Blockchain app that enables a continuous secured documentation of creation and change across the product evolution. Data owners use this app to chain a digital fingerprint of their files for later reference or content integrity validation.

Feasibility of functional requirements is ensured by design recommendations from the experts who use the latest construction and simulation tools. For example, visualization services involve new technologies in virtual and augmented reality. Complete use cases will be stored in the AMable Digital Innovation Hub (DIH) to provide a rich variety of solutions to new projects.

The European Commission supports the AMable project which is coordinated by the Fraunhofer Institute for Laser Technology ILT in the context of the I4MS initiative.

The focus of EVEREST is to develop an intelligent process and system technology for extreme high-speed laser material deposition (EHLA) in order to make the technology available to broad industrial application. In addition to the development of robust processes for rollers in the chemical and paper industry, the partners will develop systems for automated geometry detection, tool path planning as well as process monitoring for intelligent repairs and hybrid additive manufacturing and will integrate them into a demonstration machine.

The Fraunhofer-Gesellschaft has launched a new cooperation platform to continue developing the additive manufacturing of metallic components: the lighthouse project futureAM. Six project partners, the Fraunhofer Institutes ILT, IWS, IWU, IGD and IFAM, as well as the Fraunhofer Research Institution IAPT, will secure Germany's technological lead in the field of additive manufacturing and make distributed resources more usable in a decentralized manner. One goal is to significantly accelerate 3D printing of metal parts while reducing manufacturing costs. The collaboration will create new digital process chains as well as scalable and robust AM processes. In addition, the institutes will develop corresponding system technology and automation and expand the range of processable materials.

In a joint ”Virtual Lab“, the futureAM partners will develop demonstrator components that show the practical suitability and the potential of the technologies developed. They will digitally map real systems and processes and optimize them by means of simulation tools – enabling users, for example, to make better predictions, or to detect and eliminate errors more quickly.

The project structure encompasses four fields of activity, which are intended to help secure the technological lead in AM: 1. Industry 4.0 and Digital Process Chains, 2. Scalable and Robust AM Processes, 3. Materials, and 4. System Technology and Automation. Fraunhofer ILT in Aachen, which will coordinate the lighthouse project for a period of three years, is in charge of the second field of activity. The scientists from Aachen are developing robust additive manufacturing processes as well as novel plant designs with large building spaces to increase process scalability.

A novel laser-based connection technology will be developed in which the surface of glass components can be modified by micro- and nanoscale laser structuring. Thanks to this technology, high-strength and temperature change resistant plastic-glass composites can be produced with thermoplastics and subsequent laser transmission welding or injection molding. The new joining and assembly technology significantly shortens process chains, eliminates additional materials and process steps and expands the design options for functional components.

The goal of “INSPIRE” is to create an interferometric distance sensor system for absolute measurement which is also capable of performing simultaneous inline detection of the macroscopic and microscopic geometric workpiece properties of metal semi-finished products.

High-performance components are increasingly being produced through a combination of various multi- and hybrid materials. For such combinations to succeed, a suitable joining technology is needed since there are few technologies to produce a reliable joint with these new, innovative materials, especially dissimilar ones. Such materials include ceramics (e.g., SiC) as well as metals and lightweight metals (e.g., Al, Cu, Ti). With special active solders and at temperatures above 850 °C, materials with difficult-to-wet surfaces can be provided with a metallic layer in a vacuum or inert gas. However, when complete components are heated, internal tension and, thus, cracks can often occur. For this reason, LaMeta aims to develop solders of suspensions with microparticles that have a metallization temperature up to 50% lower than previous ones, and to apply them to components locally where metallization is needed. Subsequently, the suspension is selectively heated with laser radiation so that a cohesive connection with the base material is formed as a thin metallization layer. In further steps, conventional joining can be carried out at low stress.

LASHARE is the acronym of a European project involving more than 30 SMEs from across Europe, partners from industry and six of the most renowned laser research institutes.

Main objective is to share knowledge on laser-based equipment and its use addressing the whole value chain end to end. As a key success factor for European manufacturing the transfer of innovative solutions from the laboratory into industrially robust products and the dissemination of its use stands at the heart of the project.

The goal of NeuGenWälz is the additive production of roller bearings by means of laser powder bed fusion (LPBF). To do this, the partners will develop materials and LPBF systems engineering in a coordinated and integrative way. The key challenge here is to develop a material that meets both the requirements of the roller bearing (high hardness to withstand mechanical stress) and, at the same time, that can be processed without cracks using LPBF. The crack-free processing will be supported by the use of a high temperature preheating at about 500 ° C.

Within the joint project ScanCut, four project partners are developing a hybrid manufacturing process for the high-precision laser cutting of thin-walled metal ribbons. For this purpose, Fraunhofer ILT has combined a helical-beam optic with a multi-beam module. The laser beam power is provided by a high-power USP beam source.

ScanCut is a joint project of KOSTAL Kontakt Systeme GmbH in Lüdenscheid, the Fraunhofer Institute for Laser Technology ILT in Aachen, as well as Pulsar Photonics GmbH and Amphos GmbH, both of which are located in Herzogenrath.