Finished Projects


09/2008 – 08/2012 – Innoshade

innoshade innoshade_eu

Innovative switchable shading components based on nanomaterials and hybrid electrochromic device configurations.

INNOSHADE is concerned with an innovative, nanocomposite-based switchable light transmittance technology developed previously for small sized objects. It constitutes a breakthrough in smart shading technology by overcoming common limitations of state-of-the-art electrochromic devices. INNOSHADE shall enable the low cost production of electrochromic shading appliances with lower energy consumption and faster response. The overall objective of the project is to scale up and study the underlying nanotechnology-based processes from laboratory to pilot line production, with the major goal to explore and extend the application potential by creating interest in several prospective user groups across sectors.

The procedures shall be implemented to establish pilot production lines for the individual device components as well as for their assembly to run-capable devices up to a size comparable to automotive sunroof dimensions. Cost reduction will be accomplished via high throughput manufacturing methods such as continuous Roll-to-Roll processing to achieve demonstrators meeting essential market and consumer requirements.

The work will be performed by a highly complementary, well-balanced consortium of 17 partners from 8 member states, 1 candidate state, and 1 third country, representing the entire value chain. The proposed research closely addresses main S&T, socio-economic and policy objectives of the NMP work programme (integration of disciplines, transformation to knowledge-intensive industry, improvement of competitiveness, high added value products), shows clear environmental benefits and contributes to Sustainable Development. Strong industrial participation (4 SMEs, 1 large enterprise, 5 partly multinational global players) reflects the high economic development perspectives of the project.



08/2011 – 10/2014 – Flexlas

flexlas ziel2 efre_en

Highspeed-laser methods for producing fully integrated flexible solar cells

The aim of Flexlas is the development of a high speed laser process for the production of fully integrated flexible solar cells. For the project optics and processes are developed and structuring and production of a demonstrator are part of the test device.



11/2011 – 04/2014 – Fabrigen

fabrigen fabrigen_eu

Fabric structures for solar power generation.

Within the Fabrigen project organic photovoltaic materials has been combined with tensile strength textiles to obtain solar power generating flexible textiles. These structures can be used as example for roofs and can feed sustainable power into the power supply system.



03/2012 – 02/2014 – Diginova

diginova diginova_eu

Innovation for digital fabrication.

The aim of the Diginova Project (Innovation for Digital Fabrication) was the analysis of existing digital production methods and creation of a roadmap. This roadmap is going to show the further path of digital fabrication.



08/2011 – 02/2014 – ProLiBat

prolibat ziel2 efre_en

Producibility of Lithium-Ions battery cells.

A complete laboratory research line for a pre industrial manufacturing of lithium-ion-batteries in a modular design will be established. The individual process steps (selection and modification of active materials, electrode coating, slitting, stacking and winding, electrolyte filling, sealing, formation) will be specified and studied. The processes will be optimized in order to increase the quality of the cells. The lab line will be used to develop new battery concepts with innovative materials and to change production steps together with manufacturing industry.



11/2013 – 10/2014 – REGAC

regac zim

High precision register control for Roll-to-Roll printed electronic.

In the REGAC project, the task is to develop and improve a high precision registration for R2R processed printed electronics. Next to the improvements of the camera system, improvements in the true running accuracy of the rollers are executed leading to an improved accuracy for the overall deposition.



09/2012 – 08/2016 – ML²

ml2 ml2_eu

MuliLayer MicroLab

MultiLayer MicroLab (ML²) will provide a design and manufacturing platform for the production of sophisticated devices which combine microfluidics, optics and microelectronics. ML2 devices will be compact devices with increased performance at lower prices while providing higher sensitivity compared to existing micro-nano-biosystem (MNBS). Efficient packaging method and fully automated production will lead to higher reproducibility, increased integration of bioactive components and higher intelligence of the devices.



01/2013 – 12/2016 – Smartonics

smartonics smartonics_eu

Development of smart machines, tools and processes for the precision synthesis of nanomaterials with tailored properties for Organic Electronics.

Organic electronics (OE) is a rapidly emerging field that is expected to revolutionize conventional electronics, energy and photonic applications. Some of the most important OE applications include OPVs, e-paper, OLEDs for displays and lighting, sensors and RFIDs.

One target of the SMARTONICS project is the development of smart nanomaterials for organic electronics (polymer and small molecule films, plasmonic nanoparticles and super-barriers) by process and computational modelling optimization. Additionally smart Technologies (Roll-to-Roll printing and organic vapour phase deposition machines combined with precision sensing and laser tools and processes) are developed. Furthermore one target is the integration of smart Nanomaterials and Technologies in pilot lines for precision synthesis of nanomaterials and Organic Electronics devices, optimization, demonstration and evaluation for industrial applications.



01/2014 – 06/2017 – Eelicon

eelicon eelicon_eu

Enhanced energy efficiency and comfort by smart light transmittance control

EELICON is the succession project to the INNOSHADE project. It aim is the production of electrochromic layers which are produced at the R&D centre of Coatema. Therefore a production line for electrochromic layers will be built and validated.



03/2015 – 08/2017 – Inline Fluorescenz Detektion

Fluorescenz Detektion zim

Inline valuation of transparent substrate coatings by fluorescence detection.

The aim of this project is a novel, in-line detection method for quality validation of functional coatings on substrates or solids. The detection is based upon the fluorescence of organic colourants that are added to the coating solution at a negligible amount.



04/2011 – 03/2015 – 3D LightTrans

3dlighttrans 3dlighttrans_eu

Large scale manufacturing technology for high-performance lightweight 3D multifunctional composites.

Textile reinforced polymer composites (TRPC) hold the promise for enhanced products featuring superior properties, such as light weight and high strength, with comparatively low material costs. This promising potential is nevertheless hindered by the lack of appropriate processing technologies to enable low-cost manufacturing of mass products with sufficient quality.

The objective of the 3DLightTrans project is to create a highly flexible manufacturing chain for low cost production of integral large scale 3D TRPC parts, based on innovative approaches for the individual processes and its integration in the complete supply chain. This will enable to shift TRPCs from its current position in cost intensive, small series niche markets -like aeronautics-, to broadly extended mass product applications not only in transportation, but also in health, energy, leisure and other key sectors.



05/2012 – 04/2015 – Clean4Yield

C4Y c4y_eu

Contamination and defect control for increased yield for large scale R2R production of OPV and OLED.

The Clean4Yield project aims to ensure high enough yields for cost-effective organic electronics manufacturing. The project partners will develop new technologies for inspecting, cleaning and repairing moving foils, and detecting and preventing defects in large-scale Roll-to-Roll production of OLEDs and OPVs.

The Clean4Yield project will work to develop new technologies capable of inspecting moving foils for micro- and nanoscale dust particles and defects, and for cleaning/repairing layers as necessary. It will also explore techniques for preventing dust particles reaching the foil in Roll-to-Roll environments. The project is coordinated by the Holst Centre/TNO and has sixteen members (multi-national companies, small-to-medium enterprises, universities and research organizations).



11/2012 – 10/2014

Thime thime_eu

Thin film measurements on organic photovoltaic (OPV) layers.

Development of thin layers measurement system for organic photovoltaic layer to achieve a higher quality standard. By this a more cost efficient production is achieved.