Project acronym: <\/strong>WOODY<\/p>\n\n\n\n Background Project acronym: WOODY It\u2019s time for a bit of cooking at a research Institute in Brindisi, Southern Italy. The recipe is simple: a splashing of natural textiles, a good dose of partially-bio resin and a pinch of bio-additives and enzymes. Stir well and place your mixture in an oven for a few hours at 60 […]<\/p>\n","protected":false},"featured_media":0,"parent":0,"template":"","geographic_location":[96],"collaboration_opportunities":[97,100],"technologies":[],"class_list":["post-1236","success_story","type-success_story","status-publish","hentry","geographic_location-europe","collaboration_opportunities-academia","collaboration_opportunities-government"],"acf":[],"yoast_head":"\n
It\u2019s time for a bit of cooking at a research Institute in Brindisi, Southern Italy. The recipe is simple: a splashing of natural textiles, a good dose of partially-bio resin and a pinch of bio-additives and enzymes. Stir well and place your mixture in an oven for a few hours at 60 degrees Celcius.<\/strong>
\u201cIt is made out of linen fabrics and natural resins. It is a sustainable, completely organically derived product,\u201d says Andrea Ferrari, coordinator at the engineering firm D\u2019Appolonia.
It is, in fact, a new composite structure born out of renewable materials.
And it is these scientists\u2019 dream that this new ecomaterial will soon replace plastic composites.
\u201cWe are convinced that very soon we will be able to replace fossil-derived materials with exclusively natural materials. We\u2019re talking about materials born out of by-products like cotton, linen or hemp, or resins made with sugar cane or other crops which are not aimed at the food market,\u201d says Andrea Ferrari.
Before it hits the market, the new ecomaterial\u2019s mechanical performances are fully tested and compared with those of carbon and other classic composites.
Tests include fracture toughness, elasticity and plasticity.
\u201cAs far as we can see, the natural composite has inferior mechanical properties compared to classic composites. For instance, it is less rigid and shows less mechanical strength than carbon composite,\u201d says Andrea Salomi, a materials engineer at Cetma research centre.
\u201cBut these mechanical characteristics don\u2019t mean that the natural composite will be more difficult to use than carbon composites. It depends on the type of final product that we want to develop with it,\u201d he adds.
Researchers are not short of ideas. Various concepts are currently under study. The new biocomposite could be used to equip cars, to build construction panels or to assemble furniture or musical instruments.
All of this at a competitive price manufacturers hope:
\u201cResearch is ongoing to increase the quality of the natural composite. In a year\u2019s time, we will have a top quality product. And it shouldn\u2019t be that expensive. The natural composite will cost between 20 and 25 percent more than current plastic composites. That would mean a price increase of just 30 of 40 cents per kilo for natural composites,\u201d says composite manufacturer Guy Simmonds.
It\u2019s hoped this new biocomposite could become a market reality in the next three to four years.
This innovation was made possible by Israel\u2019s continued participation in the official Horizon 2020 fund, managed in Israel by ISERD part of The Israel Innovation Authority (Formerly the Office of the Chief Scientist and MATIMOP). The initiative has taken Israeli R&D to the next level with the help of ground-breaking collaboration between scientists in Israel and Europe, as well as essential funding and support.<\/p>\n\n\n\n
Project details<\/strong>
Project acronym: <\/strong>WOODY
Participants:<\/strong> Italy (Coordinator), Denmark, Belgium, Sweden, Israel, Finland, Portugal, Poland
FP7 Project N\u00b0<\/strong> 210037
Total costs:<\/strong> \u20ac7 244 481
EU contribution: <\/strong>\u20ac5 099 238
Duration: <\/strong>January 2009 – December 2012<\/p>\n","protected":false},"excerpt":{"rendered":"