REAP · Real-time diagnostics for Enabling Advanced laser-based roll to roll materials Processing
Horizon 2020 — Marie Skłodowska-Curie Actions
- Duration
- 2015-07-01 → 2017-06-30
- EU contribution
- €187,866
- Participants
- 1
- Scheme
- MSCA-IF-EF-ST
Lines connect the coordinator with its partners.
Results in brief
Real-time diagnostics for Enabling Advanced laser-based roll to roll materials Processing
Problem to be addressed. Europe needs versatile and sustainable manufacturing processes –where small to medium size enterprises can use light efficiently to make, monitor, and measure on high value-added manufacturing platforms. The development of scalable processes, incorporating multiple key enabling technologies, remains a key priority for Europe. This projects addresses this challenge of enabling precision laser processes, enabled by real time diagnostics, for applications in large area micro and nano electronics. Most key technologies to emerge in recent years are based on thin film hetero-structures that are produced on large, sheet to sheet or roll to roll, production systems. These manufacturing platforms are ideally suited to laser processing. The research training project seeks to develop new ultra-short laser processes by investigating real time or in-line process diagnostics. The project addressed by this research training project is the transformation of a specialist in photonics diagnostics to become an expert in advanced laser structuring of materials by the demonstration of new scalable process and diagnostic technologies. Importance for society Europe desperately needs new manufacturing technologies to support high value employment in an increasingly globalised world. The realisation of reconfigurable manufacturing tools, employing cross cutting key enabling technologies such as photonics, advanced materials, and nanotechnology, offer SMEs an opportunities for SMEs to innovate and sustainably compete throughout the European regions thereby ensuring balanced regional development. The ability of these advanced reconfigurable and scalable manufacturing tools have the potential to realise competitive advantage for manufacturing enterprises pursuing high potential applications. This project addresses the future use of reconfigurable and scalable ultrashort laser processes applied to the large area electronics sector. It demonstrates how new diagnostic concepts can be applied to develop novel selective laser patterning or laser induced crystallisation processes at the ultimate precision to realise new flexible display technologies for next generation printed electronics. The overall objectives of this project were: • To provide strategic training to the Fellow in short pulse laser structuring and camera based diagnostics. • To develop real time diagnostics at the host laboratory for short pulse lasers. • To develop new process concepts from applying process diagnostics. • To apply two process diagnostics to next generation roll to roll or sheet to sheet manufacturing platforms. • To communicate and disseminate new research findings efficiently, throughout teams in Host and partner sites, and through industrial/ scientific communities.
Data: CORDIS, © European Union
Project objective
An experienced researcher with laboratory expertise in real time monitoring of laser-matter-ambient-interactions will be diversified towards scalable production which is desperately needed to fully realise the potential of high repetition rate, multi-kiloWatt, femtosecond and picoseconds laser technologies. The fabrication of integrated multifunctional thin film devices by additive (inkjet, spray) and subtractive (laser) manufacturing on Roll to Roll (R2R) production platforms is also suddenly possible and desperately needed to transform the competitiveness of Europe’s SME manufacturing sector. The training programme will lead to scalable innovation by developing diagnostics for ultra-precision laser processes. The initial objective of the project is to identify which intersecting value chains for real time or in-line diagnostics can fully realise the potential of short pulse laser structuring. Three diagnostics based on gated (i) spectral analysis of laser generated plasma plumes, (ii) image analysis of laser material ambient interactions and (iii) laser induced breakdown spectroscopy will be developed. The Fellow will demonstrate two process diagnostics using the R2R pilot line at the industry site. The application of these on-line tools will create pathways for cost effective production based on new nano-inspired materials relevant to flexible large area electronics. The multi-partner training environment provides excellent facilities for the talented ambitious Fellow. Over 30+ researchers will be directly impacted by the project. An active programme of knowledge transfer and information dissemination is also proposed based on industrial workshop, active conference participation, journal publications, and science promotion.
Original text from CORDIS.
Participants
- UNIVERSITY OF GALWAY · GalwayCoordinatorIreland
Links
- View on CORDIS
- DOI: 10.3030/659454
- https://arquivo.pt/wayback/20201229175017/http://www.nuigalway.ie/research-sites/ncla/projects/reap/
Data: CORDIS, © European Union
