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trends and future of sustainable development - TransEco

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LAND USE FOR BIOENERGY PRODUCTION –ASSESSING THE PRODUCTION POTENTIALS AND THEASSUMPTIONS OF EU BIOENERGY POLICYFrancesca Allievi <strong>and</strong> Jenny TurunenFinl<strong>and</strong> Futures Research Centre, University <strong>of</strong> TurkuABSTRACT Global l<strong>and</strong> use is becoming increasingly competitive because <strong>of</strong> population growth,economic growth <strong>and</strong> climate change mitigation actions. More agricultural l<strong>and</strong> is required to producefood for the growing populations, <strong>and</strong> at the same time vast tracts <strong>of</strong> l<strong>and</strong> are reserved for bioenergyproduction to fight climate change. L<strong>and</strong> is becoming a scarce resource <strong>and</strong> integrated l<strong>and</strong> useplanning becomes increasingly important. However, the current EU bioenergy policy sets a high goalwhich is based on three key assumptions: by replacing fossil fuels with bi<strong>of</strong>uels it’s possible to gainremarkable reductions in GHG emissions, increase energy security in the EU <strong>and</strong> spur rural<strong>development</strong> both in the EU <strong>and</strong> in developing countries. Possible negative impacts <strong>of</strong> such a policy arealmost completely neglected. In this paper, bioenergy potentials estimations are reviewed, <strong>and</strong> thecritique to the EU bioenergy policy is presented; moreover, impacts on rural <strong>development</strong> <strong>and</strong>developing countries are pointed out.1. IntroductionClimate change, global population growth <strong>and</strong> a rising energy dem<strong>and</strong> are interlinked processes withconflicting dimensions. More agricultural l<strong>and</strong> is needed to feed the increasing global population <strong>and</strong>simultaneously economic growth increases the energy consumption <strong>of</strong> societies. At the same time,diminishing reserves <strong>of</strong> fossil fuel, requirements set forth from the climate change mitigation point <strong>of</strong>view, <strong>and</strong> on-going debate on the use <strong>of</strong> nuclear power indicates a need for increasing amount <strong>of</strong>renewable energy. Bioenergy is <strong>of</strong>ten addressed as one <strong>of</strong> the main factors in the portfolio <strong>of</strong> solutionsproposed to fight climate change (McKendry, 2002).Bioenergy can be derived from various biomasses such as wood, grains, oil seeds, sugar cane, grasses<strong>and</strong> straw, human <strong>and</strong> animal manure, agricultural residues <strong>and</strong> food waste from food industry <strong>and</strong>households. Traditionally bioenergy has been exploited by burning wood or cow dung, <strong>and</strong> modernbioenergy production includes processing biomasses into liquid <strong>and</strong> gaseous fuels such as bioethanol,biodiesel or biogas. The liquid transportation fuels produced from biomass are usually called bi<strong>of</strong>uels, indistinction from other types <strong>of</strong> bioenergy. In this paper we focus on bioenergy produced from cultivated230

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