Table A.1. The share of recovered fibres (re-utilization rate) and virgin fibres (i.e. wood chips from roundwood and sawmill co-products) in paper and particleboard production in three wood utilization scenarios. Products Type of pulp Share in total paper production % Share of recovered fibres (re-utilization rate) (%) Share of virgin fibre from roundwood (%) (c)*Assumed particleboard density of 650 kg/m 3 (UNECE/FAO, 2010); (1) Study in Belgium by Fedustria 2011 as cited by Sikkema et al., 2013; (2) Study in Netherlands newsprint sector by Norske Skog Parenco between 1991 and 2010 as cited by Sikkema et al., 2013.

Sustainable agricultural intensification (SI) is an important strategy to respond to the combined challenge of achieving food security and providing public goods and ecosystem services to society, including mitigation and adaptation of climate change. Sustainable intensification includes a wide range of measures at both the supply and demand-side of agricultural production. However, currently, it is unclear what are the most effective and priority measures. This study assesses the potential of different SI measures for reducing GHG (greenhouse gas) emissions and increasing land use efficiency in the European Union's agriculture sector. A scenario approach was combined with life cycle analysis to quantify the environmental impacts of a number of different SI measures. The sustainable intensification measures assessed in this study are: 1) changing human diet; 2) using food waste in livestock diets; 3) shifting from monoculture cropping to crop rotation, and, 4) incorporating crop residues into the soil. The results reveal that the studied SI measures have the potential to increase land use savings, ranging from 0.06 to 3.32 m 2 /person/day, while GHG emission savings ranging from 71 to 1872 g CO 2-eq/ person/day can be achieved at EU level. Among these SI measures, changing human diet showed a remarkably high reduction of environmental impacts. On the contrary, increased GHG emission savings in the other SI measures (i.e. crop residue incorporation in the field and replacing soybean meal in conventional feed by food waste-based feed) are counter effected by increased GHG emissions in the energy sector due to reduction of feedstock availability for bioenergy production. The approach used in this study allows the assessment of both the production and consumption-side SI measures and allows the identification of the most effective SI measures and their potential trade-offs.