LIFE
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<strong>LIFE</strong> ENVIRONMENT |<br />
<strong>LIFE</strong> and the circular economy<br />
in their products. This has gained in relevance in<br />
recent years, as the REACH (Registration, Evaluation,<br />
Authorisation and Restriction of Chemicals)<br />
regulation (EC 1907/2006) is restricting or banning<br />
an increasing number of chemicals (“substances<br />
of very high concern”), where suitable alternatives<br />
have been identified. Facilitating the substitution<br />
of chemicals of concern at the production stage is<br />
one of the actions noted in the Circular Economy<br />
Action Plan to help SMEs exploit business opportunities<br />
arising from increased resource use efficiency<br />
during the transition to a circular economy.<br />
Maintaining or improving the quality of recycled<br />
materials facilitates upcycling, and growth in the<br />
reuse and recycling sectors.<br />
<strong>LIFE</strong> READ is developing effective methods for communicating<br />
safety information about hazardous products<br />
Photo: <strong>LIFE</strong>12 ENV/GR/001135<br />
In order to provide companies with information<br />
on substituting hazardous substances with safer<br />
alternatives, the SUBSPORT project (<strong>LIFE</strong>08<br />
ENV/D/000027) developed an innovative ‘substitution<br />
support’ web portal (www.subsport.eu), containing<br />
hundreds of case studies, as well as lists<br />
of restricted and priority substances, links to tools<br />
that can help facilitate substitution and training<br />
materials. It continues to be updated. More recently,<br />
<strong>LIFE</strong> Fit for REACH (<strong>LIFE</strong>14 ENV/LV/000174)<br />
has produced a management package to help<br />
SMEs find alternatives to restricted substances<br />
(see box, p. 29).<br />
The processing of fruit generates a significant<br />
amount of waste with little commercial value.<br />
This has some use as animal feed, but much is<br />
underutilised and discarded. <strong>LIFE</strong>CITRUS (<strong>LIFE</strong>14<br />
ENV/ES/000326) is demonstrating an innovative<br />
industrial process for obtaining natural food ingredients<br />
from citrus fruit discards. This waste can be<br />
treated and transformed to recover hesperidin, essential<br />
oils, sugars and a gelling agent for the food<br />
industry. The new process, installed in the project<br />
beneficiary’s processing plant in Murcia (Spain), is<br />
expected to reduce waste by 80% (by mass and<br />
volume). The project is also organising training<br />
courses on the technology for agro-food industries<br />
technicians, and assessing the suitability of the<br />
process for other fruit and vegetable residues.<br />
Chemical substitution<br />
A significant barrier to closing material loops is the<br />
presence of hazardous or problematic substances<br />
that cannot be reused or recycled. A cluster of <strong>LIFE</strong><br />
projects has addressed this issue, by helping companies<br />
to identify alternative chemicals for use<br />
More effective methods for communicating safety<br />
information about hazardous products are essential.<br />
This is why the <strong>LIFE</strong> READ project (<strong>LIFE</strong>12<br />
ENV/GR/001135) developed a public database to<br />
generate Safety Data Sheets (SDSs) and workplace<br />
instruction cards for detergents. The outcome is<br />
improved safety information on products used in<br />
the tourism and construction industries in Greece,<br />
which covers the entire supply chain from manufacturers<br />
and importers, producers and wholesale<br />
distributors, to professional end users. The information<br />
provided includes whether the product contains<br />
any hazardous environmental pollutants, its<br />
carbon footprint, and if it has any environmental<br />
certification (e.g. EU Ecolabel).<br />
Products of petrochemical origin, and in particular<br />
chlorinated compounds, have been widely used in<br />
the leather defatting process. They are preferred<br />
mainly because of their chemical stability, low<br />
cost and good performance. Yet, there are increasing<br />
concerns over their high chlorine content and<br />
low biodegradability potential. <strong>LIFE</strong> ECODEFATTING<br />
(<strong>LIFE</strong>13 ENV/IT/000470) is replacing hazardous<br />
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