CATALD: ALD catalytic materials in exhaust pollution reduction and control systems
New business opportunities for sustainable technologies
This project aims to develop the business opportunities and create new business in the field of emission (SOx, NOx, PM) detection, control and reduction from combustion reactions by catalysts. Project will evaluate the potential markets and clarify the state-of-the-art catalyst technologies and improvements needed based on targeted emission limits. Technological development in the project will be based on utilization and investigation of existing and well known atomic layer deposition (ALD) processes of catalytic materials and the evaluation of their commercial exploitation in the exhaust emission reduction applications.
The industrial emission reduction technologies are based on catalysts. The catalytically active materials are deposited on the catalyst support typically by a washcoat method. A washcoat is a carrier for the catalytic and catalytically active materials and is used to disperse the materials over a high surface area. Favorable for the effective performance of catalyst is to maximize the catalytically active surface available to react with the exhaust gas. The catalytic coatings typically have surface roughness of several or several tens of microns. ALD as a surface drive coating method is seen to have a great potential in catalyst surface optimization since it coats conformally the complex shapes of structures and thus maximizes the surface area to be coated.
The primary target for this technology is the manufacturers of system manufacturers for exhaust emission (SOx, NOx and PM) control and reduction in combustion engines.
The project is run by LUT Savo ASTRaL laboratory together with LUT TBRC (Technology Business Research Center).
Roll-to-roll atomic layer deposition development
Atomic layer deposition (ALD) is a process of thin film deposition characterised by extreme uniformity, controllability and conformality. ALD is applied to many areas including microelectronics, photovoltaics and electro-optical displays. Up until now, atomic layer deposition (ALD) has been restricted to batch processing of individual parts. For low cost manufacture of flexible devices, a roll-to-roll process is needed which can deposit on continuous webs. ASTRaL has developed a true roll-to-roll atomic layer deposition (ALD) process aimed towards producing materials for flexible electronics and intelligent packaging applications. It allows us to deposit ALD layers on flexible webs up to 500 mm width.
This project is funded by TEKES/ERDF and our partners are VTT and Tampere University of Technology with support from Stora-Enso, UPM-Raflatac and Innovia films. Details of the roll-to-roll ALD system can be found here.
NANOMEND: Nanoscale Defect Detection Cleaning and Repair for Large Area Substrates
NanoMend is a collaborative, end user led project aimed at pioneering novel technologies for in-line detection, cleaning and repair of micro and nano scale defects on thin films deposited on large area substrates. The aim is to integrate these technologies into systems that work at speeds required for continuous production, thus enabling the new technologies to improve product yield and performance, while keeping manufacturing costs low.
This is an EU Framework 7 project with 14 partners from Finland, Germany, Switzerland, the Netherlands and the United Kingdom. It runs from 2012 to 2015.
PlasTEP: Dissemination and fostering of plasma based technological innovation for environment protection in the Baltic Sea region.
Pollution control is a transnational problem for all countries and a strategic aim of the European Union. This is reflected in the increasing tightening of the exhaust emission standards particularly in the Baltic Sea region (BSR) countries. The objective of the project is to direct plasma based cleaning technologies for atmospheric air and water treatment towards practical application.
This is an EU-funded project under the Baltic Sea Region programme. There are 15 partners from the countries bordering the Baltic Sea. ASTRaL also received support from the Finnish Ministry of the Environment and Miktech Oy. It ran from 2010 to 2012
Bacteriosafe: Active wound dressings based on biological mimicry.
The aim of BacterioSafe to construct, test and develop a unique active wound dressing, which incorporates novel colourimetric sensor and active therapeutic processes for detecting and counteracting pathogenic bacteria in wounds. The inspiration of this project is the natural mechanism of bacterial attack of healthy cells. The outer cell walls are ruptured by an array of protein toxins, lipases and other enzymes secreted by these bacteria. We mimic this natural process by using these pathogenic factors to liberate engineered and biologically derived antibiotics/antimicrobials and indicating molecules from highly designed surface immobilized nanocapsules. These are immobilised on currently available wound dressing materials such as polypropylene or polyethylene non-wovens using a range of deposition processes. This will minimize the need for frequent traumatic changes of wound dressing and will provide a simple optical indicator of bacterial infection.
This is an EU Framwork 7 project with 11 partners from Australia, Belgium, Finland, Germany, Ireland and the United Kingdom. it runs from 2010 to 2014.
The main objective of this research is to gain new information and to develop an innovative method to simultaneously remove pollutants and recover valuable compounds ecoefficiently from wastewaters. The developed technologies would be designed based on the green chemistry and engineering principles, therefore, implementing the principles for sustainable development.
ASTRaL's task is to develop surface modification techniques using atomic layer deposition to enhance the performance of filtration systems for the removal of heavy metals and other pollutants from contaminated water.
This project is funded by TEKES with the support of a consortium of 11 Finnish companies. The research partners are University of Oulu, Geological Survey of Finland, Corvinus University of Budapest, Academy of Sciences of the Czech Republic, and the National University of Engineering, Lima.
CALD: Continuous atomic layer deposition process
This project developed a spatial atomic layer deposition for application to moving flexible material. The application was barrier layers on paper-based materials.
Partners: Tampere University of Technology
Funders: TEKES, Savcor Group Ltd., Stora Enso Oy, UPM Raflatac Oy.
FIRECO: Fire resistance treatments for polymer composites
This project focussed on increasing the fire resistance of polymer composites by improving the fire retarding properties of the matrix and filler and by surface coating by a mixture of thermal barrier and diffusion barrier coatings.
Partners: Tampere University of Technology
Funders: TEKES plus a group of 10 Finnish companies
ALDEUX: ALD coating for industrial applications
This project explored the application of atomic layer deposition (ALD) technology to industrial uses such as optical coatings, coatings on polymers, etc.
Partners: Aalto University
Funders: TEKES, Beneq Oy, Okmetic Oy, Oxford Instruments Analytical, Silecs Oy.
DEMIST: Development of Mikkeli Surface Technology
This project developed the level of expertise in surface technology in the ASTRaL research unit in Mikkeli and promoted collaboration with regional companies in developing applications. Funders: European Social Fund, east Finland regional Authority, Mikkeli City, Environics Oy
CALAPET: Catalyst Layers on Plastic for Effluent Treatment.
This project developed photocatalytic materials coated onto plastic substrates for removal of organic contamination from waste water.
Funders: Miktech Oy, Mikkeli University Centre
DELTA: Development of Low-Temperature ALD Research in Mikkeli
This project supported researchers working on development of low temperature deposition processes by atomic layer deposition which are suitable for application to sensitive materials.
Funder: Mikkeli University Centre
COATCOM: Coatings on Composites
This object of this project was to apply wear resistant coatings to carbon fibre composites to explore the possibility of replacing metal parts by coated composite parts for cost and weight saving.
Funders: Tekes, Savcor Coatings Oy, Exel Oy, Fibrocom Oy, Metso Paper Oy.
Jalo-ALD: ALD process development for thin film sensors
Funders: Tekes, Environics Oy
ELCO: Electrochemical Electrode Coating
Funder: Savcor Process Oy